Directed Energy Missions for Planetary Defense
Philip Lubin, Gary B. Hughes, Mike Eskenazi, Kelly Kosmo, Isabella E., Johansson, Janelle Griswold, Mark Pryor, Hugh O'Neill, Peter Meinhold,, Jonathon Suen, Jordan Riley, Qicheng Zhang, Kevin Walsh, Carl Melis, Miikka, Kangas, Caio Motta, Travis Brashears

TL;DR
This paper discusses a scalable directed energy system, DE-STARLITE, that uses laser ablation to deflect asteroids, offering a promising and adaptable planetary defense method superior to existing technologies.
Contribution
It introduces DE-STARLITE, a smaller, stand-on laser ablation system for asteroid deflection, demonstrating its capability to protect against all known threats.
Findings
DE-STARLITE can deflect a 325m asteroid within 1-15 years.
Laser ablation provides a propellant source from the asteroid itself.
The system surpasses current planetary defense proposals in capability.
Abstract
Directed energy for planetary defense is now a viable option and is superior in many ways to other proposed technologies, being able to defend the Earth against all known threats. This paper presents basic ideas behind a directed energy planetary defense system that utilizes laser ablation of an asteroid to impart a deflecting force on the target. A conceptual philosophy called DE-STAR, which stands for Directed Energy System for Targeting of Asteroids and exploRation, is an orbiting stand-off system, which has been described in other papers. This paper describes a smaller, stand-on system known as DE-STARLITE as a reduced-scale version of DE-STAR. Both share the same basic heritage of a directed energy array that heats the surface of the target to the point of high surface vapor pressure that causes significant mass ejection thus forming an ejection plume of material from the target…
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