A Monte Carlo population forecast predicts 6 to 22 spinning neutron star components in LISA-detectable double neutron stars will be detectable by Cosmic Explorer, with a moment-of-inertia accuracy near 8%.
Inferring binary parameters with dual-line gravitational wave detection from tight inspiraling double neutron stars
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abstract
Neutron star (NS) binaries can be potentially intriguing gravitational wave (GW) sources, with both high- and low-frequency radiations from the possibly aspherical individual stars and the binary orbit, respectively. The successful detection of such a dual-line source could provide fresh insights into binary geometry and NS physics. In the absence of electromagnetic observations, we develop a strategy for inferring the spin-orbit misalignment angle using the tight dual-line double NS system under the spin-orbit coupling. Based on the four-year joint detection of a typical dual-line system with LISA and Cosmic Explorer, we find that the misalignment angle and the NS moment of inertia can be measured with sub-percentage and 5% accuracy, respectively.
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Galactic double neutron stars as dual-line gravitational-wave sources: Prospects with LISA and Cosmic Explorer
A Monte Carlo population forecast predicts 6 to 22 spinning neutron star components in LISA-detectable double neutron stars will be detectable by Cosmic Explorer, with a moment-of-inertia accuracy near 8%.