A team of researchers analyzed a sample of 90 neutron stars in binary relationships to measure the birth mass function (BMF) of neutron stars.The BMF of neutron stars plays a crucial role in understanding their formation in supernova explosions.Previous observations provided loose constraints on neutron star masses, but new research offers a more accurate power-law description of the BMF.The study involved classifying neutron stars as recycled or non-recycled based on their rotational speeds in binary relationships.Probabilistic corrections were applied to infer the initial masses of neutron stars at the time of their formation.The developed power-law distribution (PLD) model indicates a unimodal distribution of neutron star masses, peaking at 1.27 solar masses.The research sheds light on the link between the neutron star BMF and the initial mass function (IMF) of massive stars.Understanding neutron star birth masses is vital for interpreting gravitational wave detections from neutron star mergers.The study provides insights into supernova explosions, double star evolution, and matter properties under extreme conditions.The research enhances astrophysicists' understanding of neutron star formation history and its implications for various astrophysical phenomena.