September 19, 2022
The famous Pillars of Creation in the Eagle Nebulae—a star nursery—are believed to result from the hydrodynamic instabilities that form when plasmas are exposed to high intensity light from neighboring stars. READ MORE
September 15, 2022
For the first time University of Rochester researchers have quantified the energy of ocean currents larger than 1,000 kilometers. In the process, they and their collaborators have discovered that the most energetic is the Antarctic Circumpolar Current, some 9,000 kilometers in diameter. READ MORE
September 12, 2022
This is the second of a series of conversations on WXXI's Connections with Evan Dawson about what it means to be a scientist. Our guests describe what it's like to be new CMAP graduate students. READ MORE
August 26, 2022
How do you study the innards of alien worlds? You just need the world’s largest laser. Produced with Vox Media and science reporter Adam Cole, this piece examines how CMAP researchers design laser experiments at the Laboratory for Laser Energetics and National Ignition Facility to recreate the interiors of planets and stars and create revolutionary states of matter. WATCH ON YOUTUBE
July 2022
Hussein Aluie, associate professor in the Department of Mechanical Engineering at the University of Rochester and staff scientist at the Laboratory for Laser Energetics, has been recognized with the 2021 Editors’ Citation for Excellence in Refereeing for the Journal of Advances in Modeling Earth Systems (JAMES), an American Geophysical Union journal. READ MORE
July 28, 2022
The phase changes that materials undergo during experiments at extreme conditions can shed light on the formation and composition of exoplanets and other celestial bodies, including the inner core of Earth. University of Rochester researchers are helping develop automated deep-learning computer vision techniques to expedite the analysis of the trillions of bytes of data generated by these experiments. READ MORE
July 6, 2022
High-pressure single-crystal x-ray diffraction is used to experimentally map the electron-density distribution changes in (Fe,Mg)O as ferrous iron undergoes a pressure-induced transition from high- to low-spin states. READ MORE