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Pediatrics January 16, 2019

Explore a cornucopia of accomplishments in prematurity research

By Erin Digitale

A compilation of stories highlights the work of Stanford prematurity experts, who are advancing how we understand and predict premature birth.

Each year, around the world, about 15 million babies are born prematurely, arriving three or more weeks early and facing a wide variety of health problems. In most cases, doctors don't know why a pregnancy has ended early.

But thanks to the industrious work of Stanford's top obstetricians, neonatologists, geneticists, microbiologists, immunologists, epidemiologists, health policy experts and bioengineers, we're starting to figure out the biology of premature birth. The answers, the scientists hope, will ultimately help predict and prevent many early arrivals.

Now, a new package of stories by Stanford News highlights their successes. For instance, Stanford researchers have learned that the immune system acts as a timekeeper during pregnancy; how such factors as a mother's prior PTSD diagnosis or genetic signature may influence prematurity risk; and what influence maternal microbes and infections during pregnancy may have on early births.

At the same time, clinical teams at Lucile Packard Children's Hospital Stanford have been developing better ways to take care of preemies and their families. They've found that a common steroid treatment has unexpected brain benefits; studied how to make it easier for mothers to provide breast milk for premature babies; and worked on improving treatments for babies facing prematurity complications such as neurological problems, breathing difficulties and deafness. They've also been addressing the stresses families face when a baby is born early.

Recently, Stanford scientists even developed a blood test for pregnant women that can predict premature birth. In a story I wrote in 2016, while the test was under development, Stanford bioengineer Stephen Quake, PhD, explained its potential value:

[The researchers] can detect physiological changes in the tissues and organs of both the mother and the baby, and hope to use this information to measure genetic programs of distress that they think will accompany premature delivery. 'It gives you this unparalleled window into the whole process of pregnancy, from the point of view of the pregnancy and also of the mom,' Quake says. 'There is exquisite specificity to what you're measuring.' RNA, microbial, immune and other biomarkers will soon, the researchers hope, give obstetricians the specific predictive and preventive tools they now lack. 'The goal is to try to find a simple blood test to alert us to which women are at risk so they can be appropriately cared for,' Quake says. 'Hopefully that will give them a safer and more comfortable pregnancy, both physically and psychologically.'

The entire compilation is well worth a look.

Photo by Xavier Mouton Photographie

About Stanford Medicine

Stanford Medicine is an integrated academic health system comprising the Stanford School of Medicine and adult and pediatric health care delivery systems. Together, they harness the full potential of biomedicine through collaborative research, education and clinical care for patients. For more information, please visit med.stanford.edu.

Erin-Digitale-headshot-July-2015

Senior science writer

Erin Digitale

Erin Digitale, PhD, is a senior science writer in the Office of Communications. She earned a bachelor’s of science in biochemistry from the University of British Columbia and a doctorate in nutrition from the University of California, Davis, where she helped develop a new animal model of Type 2 diabetes. She holds a certificate in science writing from UC Santa Cruz and writes for the Stanford Medicine about pediatrics, obstetrics and gynecology, nutrition, and children’s health policy. Erin’s writing has been recognized with several national-level awards from the Association of American Medical Colleges and the Council for the Advancement and Support of Education. When she isn’t settling down at her desk with a pile of scientific studies and a large cup of tea, you can find her swimming, experimenting in the kitchen or going on hikes with her kids.