News
13 February 2026
From lab bench to classroom: Stowers postdocs expand their impact through education
By stepping into classrooms and community programs, Stowers postdocs strengthen their ability to translate complex science.
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Stowers investigators discover how an unusual interplay of signaling pathways shapes a critical eye structure
KANSAS CITY, MO—A small ensemble of musicians can produce an infinite number of melodies, harmonies and rhythms. So too, do a handful of workhorse signaling pathways that interact to construct multiple structures that comprise the vertebrate body. In fact, crosstalk between two of those pathways—those governed by proteins known as Notch and BMP (for Bone Morphogenetic Protein) receptors—occurs over and over in processes as diverse as forming a tooth, sculpting a heart valve and building a brain.
A new study by Stowers Institute for Medical Research Investigator Ting Xie, Ph.D., reveals yet another duet played by Notch and BMP signals, this time with Notch calling the tune. That work, published in this week’s online issue of PNAS, uses mouse genetics to demonstrate how one Notch family protein, Notch2, shapes an eye structure known as the ciliary body (CB), most likely by ensuring that BMP signals remain loud and clear.
In vertebrates, the CB encircles the lens and performs two tasks essential for normal vision. First, it contains a tiny muscle that reshapes the lens when you change focus, or “accommodate”. And it also secretes liquid aqueous humor into the front compartment of the eye where it likely maintains correct eye pressure. Understanding CB construction is critical, as excessive pressure is one risk factor for glaucoma.
News
13 February 2026
By stepping into classrooms and community programs, Stowers postdocs strengthen their ability to translate complex science.
Read Article
News
06 February 2026
The new study reveals miniature “packages” help planarian cells share gene-silencing instructions across the body.
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News

04 February 2026
Carlos Sanchez-Higueras, Ph.D., studies how gene-regulating “switches” evolved—linking DNA, development, and evolution across animals. Read the Q&A.
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