The multi-point assessment of the kinematics of shocks (MAKOS)

Goodrich, Katherine and Cohen, Ian J. and Schwartz, Steven and Wilson, Lynn B. and Turner, Drew and Caspi, Amir and Smith, Keith and Rose, Randall and Whittlesey, Phyllis and Plaschke, Ferdinand (2023) The multi-point assessment of the kinematics of shocks (MAKOS). Frontiers in Astronomy and Space Sciences, 10. ISSN 2296-987X

[thumbnail of pubmed-zip/versions/1/package-entries/fspas-10-1199711/fspas-10-1199711.pdf] Text
pubmed-zip/versions/1/package-entries/fspas-10-1199711/fspas-10-1199711.pdf - Published Version

Download (48MB)

Abstract

Collisionless shock waves are one of the main mechanisms of energy conversion in space plasmas. They can directly or indirectly drive other universal plasma processes such as magnetic reconnection, turbulence, particle acceleration and wave phenomena. Collisionless shocks employ a myriad of kinetic plasma mechanisms to convert the kinetic energy of supersonic flows in space to other forms of energy (e.g., thermal plasma, energetic particles, or electromagnetic energy) in order for the flow to pass an immovable obstacle. The partitioning of energy downstream of collisionless shocks is not well understood, nor are the processes which perform energy conversion. While we, as the heliophysics community, have collected an abundance of observations of the terrestrial bow shock, instrument and mission-level limitations have made it impossible to quantify this partition, to establish the physics within the shock layer responsible for it, and to understand its dependence on upstream conditions. This paper stresses the need for the first ever spacecraft mission specifically designed and dedicated to the observation of both the terrestrial bow shock as well as Interplanetary shocks in the solar wind. Our mission concept, the Multi-point Assessment of the Kinematics of Shocks (MAKOS), will greatly improve on previous observations of the terrestrial bow shock with instrumentation specifically tailored to observe the evolution of the solar wind through the shock.

Item Type: Article
Subjects: European Repository > Physics and Astronomy
Depositing User: Managing Editor
Date Deposited: 02 Nov 2023 05:03
Last Modified: 02 Nov 2023 05:03
URI: http://go7publish.com/id/eprint/3417

Actions (login required)

View Item
View Item