How our biological clock starts and keeps ticking
Peer-Reviewed Publication
Updates every hour. Last Updated: 30-Oct-2026 07:15 ET (30-Oct-2026 11:15 GMT/UTC)
Cold Spring Harbor Laboratory Professor Christopher Hammell and his team have discovered that proteins MYRF-1 and LIN-42 act as the master developmental clock in C. elegans, scheduling the start time and duration of the worm’s four larval stages. This is the first non-repeating biological clock of its kind ever found.
Through a series of experiments on a replicated mini-beach, NYU researchers show how water waves can be used to move floating objects or hold them firmly in place—all without direct touch or contact.
Funded by the U.S. National Science Foundation Directorate for Technology, Innovation and Partnerships (NSF TIP) in partnership with the U.S. Department of Commerce, the NNME initiative addresses the urgent national need for skilled workers in the semiconductor industry, which is experiencing unprecedented growth driven by federal investments through the CHIPS and Science Act, increasing demand for microelectronics across all sectors of the economy. As the lead regional institution, Boise State will coordinate educational programs, industry partnerships, and workforce development initiatives across the Pacific Intermountain region.
A BU researcher has found a system of spacecraft in orbit around the Earth could help protect us from harmful space weather.
MIT engineers developed a noninvasive pacemaker that stimulates the heart using ultrasound. The design could one day provide a surgery-free alternative to traditional cardiac implants.
Arctic and boreal ecosystems store enormous amounts CO2 but climate-driven disturbances—wildfires, drought and thawing permafrost—are rapidly transforming the landscape. Two studies address a major challenge; accurately mapping and measuring the region’s biomass. One paper reveals significant inconsistencies among widely used satellite-based biomass datasets and the other introduces a map that tracks 40 years of ecological change in unprecedented detail.
A University of Utah team of engineers and mathematicians developed and tested technology to support a smartwatch that can accurately monitor blood pressure continuously by tracking the electrical properties of blood flow at the wrist. No cuff or no calibration are required for this device that could revolutionize how a critical health metric is monitored, providing doctors with much more useful information about patients’ cardiovascular health.