Alexander W. Shingleton

This study investigates how nutrition and oxygen affect body size in Drosophila melanogaster under crowding conditions, finding that nutrition explains most variation while oxygen also contributes in a sex- and nutrition-dependent manner.

The paper investigates how genetic variation in size plasticity and morphological scaling differs between nutritional and thermal environments in Drosophila melanogaster.

The paper uses GWAS and functional validation in Drosophila to show that body size, SSD, and SSP are controlled by non-overlapping, context-dependent loci called private QTLs.

This paper shows hypoxia affects growth and development in Drosophila by both increasing ecdysone secretion and decreasing its synthesis, revealing a dual regulatory mechanism.

The paper tests whether scale-invariant morphogen gradients maintain wing patterning in Drosophila under environmental size changes and finds they do not.

The paper investigates the genetic architecture of morphological scaling in Drosophila by analyzing variation in scaling relationships across isogenic lineages under different nutritional conditions.

This study shows ecdysone coordinates plastic growth and robust pattern in Drosophila wings by regulating growth via graded responses and patterning via threshold responses to nutritional changes.

This study shows that hypoxia reduces growth in Drosophila larvae through a systemic endocrine mechanism involving ecdysone and the insulin/IGF-signaling pathway.

The paper investigates sex-specific transcriptional responses to dietary carbohydrates and proteins in Drosophila melanogaster, finding complex interactions between diet, sex, and insulin/TOR signaling pathways.