$1.5M project to support use of natural infrastructure for flood resilience in North Carolina
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This June, we’re turning our attention to the ocean in honor of World Ocean Day on June 8. Covering more than 70% of our planet, the ocean is full of discovery, wonder, and life. Join us as we explore the science behind marine ecosystems and the important role oceans play in shaping our world.
Updates every hour. Last Updated: 21-Oct-2026 11:16 ET (21-Oct-2026 15:16 GMT/UTC)
A new research project will determine the types of natural infrastructure that can support flood resilience along the North Carolina coastline.
As oceans warm, some corals may hold the key to reef survival. New research reveals that heat tolerance varies not only between coral species, but also among populations living in different environments. One Hawaiian coral species from cooler, wave-exposed waters withstood significantly more heat stress than its counterparts, while another showed similar tolerance across locations. The findings reveal why understanding coral diversity and environmental history is critical to identifying resilient corals and guiding restoration efforts as marine heat waves intensify.
Reaching net zero sooner would limit long-lasting changes to El Niño and the tropical Pacific, new climate modelling suggests, although heat stored deep in the ocean means changes to the tropical Pacific could persist for centuries.
Turbulence is ubiquitous and occurs in our everyday lives on Earth, such as when milk is stirred into coffee, or in the stormy motions of the ocean and the atmosphere. Media in space and astrophysical systems can also develop turbulence, but the physics is different because the medium is in an ionized state (known as the plasma state) and the flow motion is strongly coupled to electromagnetic fields. Furthermore, space plasma is collisionless because the medium is so dilute that the particles do not collide with each other. How does plasma develop into turbulence? How is the fluctuation energy distributed in collisionless turbulence? Turbulence in space plasma remains a mystery in physics.
An international research team from the Technische Universität Braunschweig and University of Tokyo in cooperation with Tohoku University, Kyushu University, Osaka University, and multinational research institutes has now demonstrated, for the first time, a reversal phenomenon of magnetic field rotation in space turbulence. A structure emerges within the unstructured space plasma. The results are published in The Astrophysical Journal Letters.
UC Irvine, NASA JPL scientists’ computer model shows Thwaites Glacier in Antarctica is melting more aggressively than previously projected. In new simulations, researchers account for larger area beneath ice sheet that is coming into contact with warm, pressurized ocean water. Models predict up to 30 millimeters of sea level rise from Thwaites, doubling previous projections.
How did life begin on Earth? Can plants adapt to a changing climate? What can the rhythmic abilities of aquatic mammals reveal about the evolution of communication? These are among the questions explored in HFSP Science Digest #5, published today by the International Human Frontier Science Program Organization (HFSPO).
To the point:
Late arrivals: Birdwatchers' observations show that New Zealand banded dotterels reach Australia after fall migration about four days later each year on average, cutting their estimated stay in their non-breeding residencies by about a quarter in just over a decade.
Climate change connections: The delay is linked to changes in Southern Ocean westerly winds, bringing New Zealand calmer, milder weather in winter.
Potential loss of behaviour: If this trend continues, scientists suspect the migration could all but disappear, leaving most birds in New Zealand all year.
Key questions remain: The team is now tracking individual birds aiming at a broader understanding of how climate change impacts migration.