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Concept of the X-ray Astronomy Recovery Mission

Authors :
Shinya Yamada
Laura Brenneman
Yang Soong
Eric J. Miller
Kyoko Matsushita
Katja Pottschmidt
Johannes Dercksen
Hiromi Seta
Toru Tamagawa
Keiichi Matsuzaki
Yukikatsu Terada
Edgar Canavan
Rie Sato
F. Scott Porter
Hiroshi Murakami
Yoh Takei
Kimberly D. Brown
Michael J. DiPirro
Steven Kenyon
Hiroshi Tomida
Timothy R. Kallman
Richard L. Kelley
Atsushi Okamoto
Rob Wolfs
Matteo Guainazzi
Shinya Nakashima
Kenji Hamaguchi
Shin Watanabe
Lorella Angelini
Takayoshi Kohmura
Brian R. McNamara
Thomas G. Bialas
Megumi Shidatsu
Kumi Ishikawa
Aya Kubota
Takayuki Tamura
Jon M. Miller
Mark O. Kimball
Gary A. Sneiderman
Joseph Bonafede
Yoshitaka Arai
Kosei Ishimura
Mina Ogawa
A. E. Szymkowiak
Hiroshi Nakajima
Kenichi Toda
Steve Graham
Takao Kitaguchi
Makoto Sawada
Tom Lockard
Erin Kara
Yutaka Fujita
Dean Hawes
Shin'ichiro Uno
Hideyuki Mori
Kenichiro Nigo
Jan-Willem den Herder
Randall K. Smith
Luigi C. Gallo
Chikara Natsukari
Hideto Nakamura
Makoto Yamauchi
Michitaka Onizuka
Yoshitaka Ishisaki
Thomas Walsh
Koji Mori
Peter Barfknecht
Kazuhiro Nakazawa
Maria Diaz-Trigo
Manabu Ishida
Makoto Tashiro
Hiromitsu Takahashi
Satoru Katsuda
Cor P. de Vries
M. Ohno
Zhuravleva Irina
Meng P. Chiao
Aurora Simionescu
Kim Barnstable
Cailey Hegarty
Aya Bamba
Naomi Ota
Joseph Miko
M. Loewenstein
Connor Martz
Hirokazu Odaka
Ann Hornschemeier
Carlo Ferrigno
Edmund Hodges-Kluck
B. Blagojević
Liyi Gu
Masanobu Ozaki
Kenji Minesugi
Kazunori Someya
Kumiko K. Nobukawa
Junko S. Hiraga
Hiroya Yamaguchi
Shogo B. Kobayashi
Greg Brown
C. Brambora
Hiroyuki Uchida
Richard F. Mushotzky
Peter Shirron
Chris Done
Dan McCammon
Natalie Hell
Laura A. Burns
Kazunori Ishibashi
Brian J. Williams
Jaime Zabala
Brian Comber
Hironori Matsumoto
Matthew Holland
Teruaki Enoto
Stéphane Paltani
Yusuke Nishioka
Tim Carnahan
Masahiro Tsujimoto
Takayuki Hayashi
Lurli Babyk
Maki Shida
Ken Shelton
Isamu Hatsukade
Takeshi Go Tsuru
Kosuke Sato
Yoshihiro Ueda
Caroline A. Kilbourne
Yasuharu Suagawara
Tsunefumi Mizuno
Susumu Yasuda
S. Koyama
Hironori Maejima
Lia Corrales
Masayoshi Nobukawa
Yoshitomo Maeda
Yasushi Fukazawa
Hisamitsu Awaki
Takaaki Tanaka
Tadayasu Dotani
Megan E. Eckart
Takaya Ohashi
J. V. Lobell
Hiroshi Tsunemi
Ikuyuki Mitsuishi
Noriko Y. Yamasaki
Hirofumi Noda
Lillian Reichenthal
Yuichi Terashima
Kiyoshi Hayashida
Lynette Marbley
Tahir Yaqoob
Ryuichi Fujimoto
Ken Ebisawa
Kohichi Hagino
Martin Grim
Bryan L. James
Yohko Tsuboi
Shigeo Yamauchi
Maxim Markevitch
Yuto Ichinohe
Tyrone DIllard
Nasa Yoshioka
Akio Hoshino
Hideki Uchiyama
Shunji Kitamoto
Paul P. Plucinsky
Mark Edison
Yuichiro Ezoe
Yasuko Shibano
Koji Mukai
Michael R. Wright
Ryo Iizuka
Masayuki Ohta
Keiichi Yanagase
Hiroki Akamatsu
Robert Petre
Elisa Costantini
Kazutaka Yamaoka
Maurice A. Leutenegger
Takashi Okajima
Akihiro Furuzawa
Source :
Space Telescopes and Instrumentation 2018: Ultraviolet to Gamma Ray.
Publication Year :
2018
Publisher :
SPIE, 2018.

Abstract

The ASTRO-H mission was designed and developed through an international collaboration of JAXA, NASA, ESA, and the CSA. It was successfully launched on February 17, 2016, and then named Hitomi. During the in-orbit verification phase, the on-board observational instruments functioned as expected. The intricate coolant and refrigeration systems for soft X-ray spectrometer (SXS, a quantum micro-calorimeter) and soft X-ray imager (SXI, an X-ray CCD) also functioned as expected. However, on March 26, 2016, operations were prematurely terminated by a series of abnormal events and mishaps triggered by the attitude control system. These errors led to a fatal event: the loss of the solar panels on the Hitomi mission. The X-ray Astronomy Recovery Mission (or, XARM) is proposed to regain the key scientific advances anticipated by the international collaboration behind Hitomi. XARM will recover this science in the shortest time possible by focusing on one of the main science goals of Hitomi,“Resolving astrophysical problems by precise high-resolution X-ray spectroscopy”.1 This decision was reached after evaluating the performance of the instruments aboard Hitomi and the mission’s initial scientific results, and considering the landscape of planned international X-ray astrophysics missions in 2020’s and 2030’s. Hitomi opened the door to high-resolution spectroscopy in the X-ray universe. It revealed a number of discrepancies between new observational results and prior theoretical predictions. Yet, the resolution pioneered by Hitomi is also the key to answering these and other fundamental questions. The high spectral resolution realized by XARM will not offer mere refinements; rather, it will enable qualitative leaps in astrophysics and plasma physics. XARM has therefore been given a broad scientific charge: “Revealing material circulation and energy transfer in cosmic plasmas and elucidating evolution of cosmic structures and objects”. To fulfill this charge, four categories of science objectives that were defined for Hitomi will also be pursued by XARM; these include (1) Structure formation of the Universe and evolution of clusters of galaxies; (2) Circulation history of baryonic matters in the Universe; (3) Transport and circulation of energy in the Universe; (4) New science with unprecedented high resolution X-ray spectroscopy. In order to achieve these scientific objectives, XARM will carry a 6 × 6 pixelized X-ray micro-calorimeter on the focal plane of an X-ray mirror assembly, and an aligned X-ray CCD camera covering the same energy band and a wider field of view. This paper introduces the science objectives, mission concept, and observing plan of XARM.

Details

Database :
OpenAIRE
Journal :
Space Telescopes and Instrumentation 2018: Ultraviolet to Gamma Ray
Accession number :
edsair.doi...........0df339c9304137d8fff1c19961a06ade