Researchers find evidence of daily body clock for humidity
Peer-Reviewed Publication
Updates every hour. Last Updated: 23-Jun-2026 03:16 ET (23-Jun-2026 07:16 GMT/UTC)
In a novel experiment at the University of Cincinnati, researchers isolated kissing bugs, fruit flies, mosquitoes and spider beetles in a climate- and light-controlled environment and found that they responded predictably to cycles of humidity in the same way they do temperature and daylight. After the humidity cue was removed, the insects continued to respond to the cyclical fluctuations of humidity and dryness established in the experiment.
AMHERST, Mass. — University of Massachusetts Amherst researchers have demonstrated a possible new avenue for developing flame-retardant and generally low-conductivity (low heat transfer) plastics that retain the benefits of being strong and flexible by limiting the accessibility of heat-carrying vibrational channels of the material. This new design framework has promising applications, including lightweight thermal insulation materials for spacesuits, thermal protection components for spacecraft and advanced building materials that reduce heating and cooling losses.
Neurons tucked away in an ancient part of the brain control the ability to pay attention by suppressing distractions and directing focus.
The discovery of these neurons in mice by Johns Hopkins University researchers, in a part of the brain that exists across all vertebrates including humans, could be an initial step toward more targeted treatments for attention disorders.
A UC Berkeley paleontologist discovered a “cat” fossil in a museum that is actually from an early diverging lineage of saber-toothed cat. The cat’s relatively small upper canines compared to later species of sabertooths reinforces the theory that growing long canines was an evolutionary rachet that led to the demise of sabertooths. The famed Smilodon exemplifies this trend. It had some of the largest fangs of any saber-toothed cat before going extinct 10,000 years ago.
A study by a team of NYU mathematicians reveals that flocks and schools behave in ways that are similar to a soft crystalline material, with individual birds and fish serving as “atoms” that are evenly spaced in a lattice-like formation. The findings offer detailed insights into the hydrodynamic and aerodynamic interactions crucial in aerospace and automotive engineering, robotics, and energy harvesting.