The Laboratory for Nuclear Science (LNS) studies the fundamental nature and seeks to answer basic questions about the origin and structure of our universe through both experimental and theoretical research.
Charge radii differences in mirror nuclei, which have opposite numbers of protons and neutrons, can help constrain parameters for the equation of state nuclear matter, which describes the properties of astrophysical objects such as neutron stars.
In the first quintillionth of a second, the universe may have sprouted microscopic black holes with enormous amounts of nuclear charge, MIT physicists propose.
Using lasers with precisely tuned frequency, λ, physicists control rotational states of radium monofluoride molecules and excite specific rotational levels, characterized by the quantum number, J. These excitations manifest as sharp spectral peaks.
Harvard Radcliffe Institute today announced its historic 25th anniversary class of fellows, marking a quarter century of pathbreaking interdisciplinary study.