posted on 2021-11-29, 00:00authored byLuis Alfredo Morales
<p>The St. George recoil mass separator at the University of Notre Dame has been used to study the <sup>20</sup>Ne (α, γ)<sup>24</sup>Mg reaction.</p><p> The reaction rate of <sup>20</sup>Ne (α, γ)<sup>24</sup>Mg is important in advanced burning stages in massive stars such as carbon, neon and silicon burning.</p><p> Three known resonance strengths have been measured as part of the commissioning experiments of St. George and the characterization of its focal plane detector.</p><p> St. George rejects the un-reacted <sup>20</sup>Ne beam and sends the <sup>24</sup>Mg recoils into a particle identification detection system using the time-of-flight versus residual energy approach.</p><p> The measured resonance strengths are in good agreement with the literature values.</p><p> A path to study <sup>20</sup>Ne (α, γ)<sup>24</sup>Mg at lower energy is discussed.</p>