MIT research on seawater surface tension becomes international guideline
Work by Professor John Lienhard and Kishor Nayar SM ’14, PhD ’19 was recently recognized by the International Association for the Properties of Water and Steam.
Work by Professor John Lienhard and Kishor Nayar SM ’14, PhD ’19 was recently recognized by the International Association for the Properties of Water and Steam.
New model answers longstanding question of how these sudden flows happen; may expand understanding of Antarctic ice sheets.
Method may help quickly identify regions where objects — and missing people — may have converged.
Textbook formulas for describing heat flow characteristics, crucial in many industries, are oversimplified, study shows.
MIT researchers describe factors governing how oceans and atmospheres move heat around on Earth and other planetary bodies.
A novel experimental facility integrates automation and active learning, illuminating a path to accelerated scientific discovery.
Study finds even the tallest ice cliffs should support their own weight rather than collapsing catastrophically.
MIT engineers develop a model that predicts how the cornstarch-water mixture turns from liquid to solid, and back again.
Findings show how to make confined bubbles develop uniformly, instead of in their usual scattershot way.
Researchers have found a simple formula that could be useful for air purification, space propulsion, and molecular analyses.
Ubiquitous marine plants dissipate wave energy and could help protect vulnerable shorelines.
Mechanical engineering professor’s models of granular flow shed light on agriculture, soils, and geology.
Maike Sonnewald adapts a method that identifies areas of the global ocean with similar physics, revealing global dynamical regimes.
Optical effect could be harnessed for light displays, litmus tests, and makeup products.
Scientists and engineers will collaborate in a new Climate Modeling Alliance to advance climate modeling and prediction.