Supersymmetry predicts a much larger value than the standard model for this particle's electric dipole moment. These particles undergo a decay process involving the emission of a W-minus boson, lasting only around fifteen minutes in their free form. That process is beta-minus decay, and nuclear fission occurs via (*) bombardment by these particles. They consist of an up quark and two down quarks and were discovered by James Chadwick in 1932, helping to explain atomic mass. For 10 points, name these uncharged particles, found with protons in the atomic nucleus.
Supersymmetry predicts a much larger value than the standard model for this particle's electric dipole moment. These particles undergo a decay process involving the emission of a W-minus boson, lasting only around fifteen minutes in their free form. That process is beta-minus decay, and nuclear fission occurs via (*) bombardment by these particles. They consist of an up quark and two down quarks and were discovered by James Chadwick in 1932, helping to explain atomic mass. For 10 points, name these uncharged particles, found with protons in the atomic nucleus.
Supersymmetry predicts a much larger value than the standard model for this particle's electric dipole moment.
neutrons