Gamma-ray Transient Network Science Analysis Group Report
Eric Burns, Michael Coughlin, Kendall Ackley, Igor Andreoni,, Marie-Anne Bizouard, Floor Broekgaarden, Nelson L. Christensen, Filippo, D'Ammando, James DeLaunay, Henrike Fleischhack, Raymond Frey, Chris L. Fryer,, Adam Goldstein, Bruce Grossan, Rachel Hamburg, Dieter H. Hartmann

TL;DR
This report analyzes the role of the Interplanetary Network and high-energy space-based monitors in advancing gamma-ray transient detection, localization, and multi-messenger astrophysics in the upcoming decade.
Contribution
It provides a comprehensive overview of how existing high-energy monitors and the IPN can be optimized to support time domain and multi-messenger astrophysics.
Findings
IPN enhances transient localization accuracy.
High-energy monitors are crucial for transient characterization.
Operational improvements can significantly boost TDAMM science.
Abstract
The Interplanetary Network (IPN) is a detection, localization and alert system that utilizes the arrival time of transient signals in gamma-ray detectors on spacecraft separated by planetary baselines to geometrically locate the origin of these transients. Due to the changing astrophysical landscape and the new emphasis on time domain and multi-messenger astrophysics (TDAMM) from the Pathways to Discovery in Astronomy and Astrophysics for the 2020s, this Gamma-ray Transient Network Science Analysis Group was tasked to understand the role of the IPN and high-energy monitors in this new era. The charge includes describing the science made possible with these facilities, tracing the corresponding requirements and capabilities, and highlighting where improved operations of existing instruments and the IPN would enhance TDAMM science. While this study considers the full multiwavelength and…
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