In The News

29 September 2026
Rapidly Evolving Aphid Proteins Share a Common Structural Blueprint
From Technology Networks: The Stern Lab reveals a shared structural blueprint among thousands of rapidly evolving aphid proteins.
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Investigator Julia Zeitlinger, PhD, was awarded a four-year, approximately $2.3 million grant from the NIH’s National Human Genome Research Institute. This marks the first grant awarded to a Stowers scientist by this NIH institute.
Zeitlinger’s research focuses on how DNA sequence information in the genome controls gene regulation. The Zeitlinger Lab aims to develop breakthrough genomic techniques that will allow for the collection of “cis-regulatory” information. A cis-regulatory module is a stretch of DNA where a number of transcription factors can bind and regulate expression of nearby genes and regulate their transcription rates. However, scientists have encountered challenges with collecting and mapping cis-sequence information due to insensitive and sparse data.
Zeitlinger and her lab have developed a technique that will allow for improved data collection with smaller samples, eventually even as small as a single cell, yet with greater resolution and sensitivity. With better sampling technique and data collection, Zeitlinger hopes to improve the ability to study mammalian embryogenesis which may improve our understanding of development, evolution, and disease.
In The News

29 September 2026
From Technology Networks: The Stern Lab reveals a shared structural blueprint among thousands of rapidly evolving aphid proteins.
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In The News

24 September 2026
From Phys.org: The Stern Lab reveals how evolution helped AI predict the structures of thousands of rapidly evolving aphid proteins.
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Press Release
22 September 2026
In an evolutionary arms race with plants, aphids deploy thousands of rapidly evolving proteins. A team led by Stowers Institute and HHMI Investigator David Stern, Ph.D., discovered a shared architecture beneath them and revealed how evolution can help AI predict similar protein structures across biology.
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News

15 September 2026
New single-cell atlas of the acorn worm shows that most tissues undergo a genome-wide transcriptional overhaul as larva becomes adult, providing new insights into how some organisms remake their bodies in ways humans can’t.
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