Relativistic Jets in the Accretion & Collimation Zone: New Challenges Enabled by New Instruments
Eric S. Perlman (FIT), Mark Birkinshaw (University of Bristol),, Matthias Kadler (Wurzburg University), Serguei Komissarov (University of, Leeds), Matthew Lister (Purdue University), David Meier (Caltech), Eileen, Meyer (UMBC), Masanori Nakamura (ASIAA), Kristina Nyland (NRAO)

TL;DR
This paper discusses how new instruments like ngVLA and space VLBI can advance understanding of relativistic jet acceleration and collimation in various astrophysical objects by providing higher resolution and sensitivity.
Contribution
It highlights the potential of upcoming technologies to resolve fundamental questions about jet physics in the acceleration and collimation zones.
Findings
Enhanced angular resolution will allow detailed study of jet acceleration regions.
Polarimetry is crucial for understanding magnetic field configurations.
New instruments will enable observations of flaring components in jets.
Abstract
Jets are a ubiquitous part of the accretion process, seen in a wide variety of objects ranging from active galaxies (AGN) to X-ray binary stars and even newly formed stars. AGN jets are accelerated by the supermassive black hole of their host galaxy by a coupling between the magnetic field and inflowing material. They are the source for many exciting phenomena and can profoundly influence the larger galaxy and surrounding cluster. This White Paper points out what advances can be achieved in the field by new technologies, concentrating on the zone where jets are accelerated to relativistic speeds and collimated. The ngVLA and new space VLBI missions will give higher angular resolution, sensitivity and fidelity in the radio, penetrating this zone for additional objects and allowing us to resolve fundamental questions over the physics of jet acceleration and collimation. Interferometry…
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