Metasurfaces are formed by engineering a glass surface with an array of microscopic features, or meta-atoms. Although different optical functionalities can be obtained by changing only the pattern, the resulting metasurfaces often lack the necessary efficiency for many applications. In this report, scientists from Corning and Harvard University collaborate to demonstrate an inverse-design method that optimizes efficiency while respecting fabrication constraints. These results represent a step forward in making practical metasurfaces for broader applications.

A research team has leveraged cutting-edge noninvasive phenotyping technologies to monitor plant stress across multiple vegetative organs.

A research team reveals how a low-cost imaging phenotyping system successfully uncovers the mechanisms of quantitative disease resistance (QDR) in wild tomato species.

Early development of an embryo is solely supported by maternally deposited RNAs and proteins until its own genome is activated through a process called zygotic genome activation (ZGA). Recent research by Chinese scientists has revealed novel molecular mechanisms by which HIRA acts in concert with dPCIF1 to establish a totipotent chromatin and facilitate orderly zygotic genome activation in the early embryos of Drosophila.

This study suggests that GERD may elevate cardiovascular risks, including increased blood pressure, unhealthy lipid levels, and a higher likelihood of heart disease. Through advanced genetic analysis, researchers linked GERD to elevated systolic and diastolic blood pressure, higher LDL cholesterol, and an increased risk of heart attack, highlighting GERD’s broader health implications.

Machine learning's predictive power is underutilized in vehicle-pedestrian risk identification, impeding proactive safety. A new model is needed to estimate crash severity, not just frequency. Researchers propose a novel framework combining machine learning and extreme value theory to estimate pedestrian crash frequencies by injury severity levels.

Researchers at the University of Natural Resources and Life Sciences, Vienna, and Institut Teknologi Sumatera, Indonesia, set out to explore the dynamics behind shared micromobility fleet development. By utilizing a system dynamics modeling approach, they examined how fleet size, user demand, regulatory policies, and economic factors interact to shape the success of these systems.

Researchers at the University of Natural Resources and Life Sciences, Vienna, and Institut Teknologi Sumatera, Indonesia, set out to explore the dynamics behind shared micromobility fleet development. By utilizing a system dynamics modeling approach, they examined how fleet size, user demand, regulatory policies, and economic factors interact to shape the success of these systems.

Researchers delved deep into the regulation of cobalt active sites to enhance the selectivity of propylene to improve scalability and affordability of the production of this important chemical.

A recent study unveils an innovative composite phase change material (CPCM) tailored for lithium-ion battery (LIB) thermal management. Using hydrated salts, this material is engineered to regulate battery temperatures and mitigate thermal runaway (TR) risks, paving the way for safer and more efficient battery applications. The research emphasizes the dual benefits of improved energy densities and longevity while addressing pressing safety concerns associated with high-rate charging and discharging.