The Cosmic Infrared Background Experiment-2: An Intensity Mapping Optimized Sounding-rocket Payload to Understand the Near-IR Extragalactic Background Light

Fuente: arXiv
Guardado en:
Detalles Bibliográficos
Autores principales: Zemcov, Michael, Bock, James J., Cooray, Asantha, Matsuura, Shuji, Lee, Dae-Hee, Fazar, Candice, Feder, Richard M., Heaton, Grigory, Hashimoto, Ryo, Korngut, Phillip, Matsumoto, Toshio, Nguyen, Chi H., Noda, Kazuma, Park, Won-Kee, Sano, Kei, Takimoto, Kohji, Arai, Toshiaki, Bang, Seung-Cheol, Bangale, Priyadarshini, Furutani, Masaki, Hristov, Viktor, Kawano, Yuya, Kida, Arisa, Kojima, Tomoya, Lanz, Alicia, Matsumi, Chika, Mercado, Dale, Nakagawa, Shunsuke, Nakagawa, Tomoya, Nakahata, Shuta, Ohta, Ryo, Patru, Dorin, Shirahata, Mai, Suzuki, Hiroko, Takahashi, Aoi, Tamai, Momoko, Tramm, Serena, Tsumura, Kohji, Yamada, Yasuhiro, Wang, Shiang-Yu
Formato: Preprint
Publicado: 2025
Materias:
Acceso en línea:
Etiquetas: Agregar Etiqueta
Sin Etiquetas, Sea el primero en etiquetar este registro!
_version_ 1866909828619698176
author Zemcov, Michael
Bock, James J.
Cooray, Asantha
Matsuura, Shuji
Lee, Dae-Hee
Fazar, Candice
Feder, Richard M.
Heaton, Grigory
Hashimoto, Ryo
Korngut, Phillip
Matsumoto, Toshio
Nguyen, Chi H.
Noda, Kazuma
Park, Won-Kee
Sano, Kei
Takimoto, Kohji
Arai, Toshiaki
Bang, Seung-Cheol
Bangale, Priyadarshini
Furutani, Masaki
Hristov, Viktor
Kawano, Yuya
Kida, Arisa
Kojima, Tomoya
Lanz, Alicia
Matsumi, Chika
Mercado, Dale
Nakagawa, Shunsuke
Nakagawa, Tomoya
Nakahata, Shuta
Ohta, Ryo
Patru, Dorin
Shirahata, Mai
Suzuki, Hiroko
Takahashi, Aoi
Tamai, Momoko
Tramm, Serena
Tsumura, Kohji
Yamada, Yasuhiro
Wang, Shiang-Yu
author_facet Zemcov, Michael
Bock, James J.
Cooray, Asantha
Matsuura, Shuji
Lee, Dae-Hee
Fazar, Candice
Feder, Richard M.
Heaton, Grigory
Hashimoto, Ryo
Korngut, Phillip
Matsumoto, Toshio
Nguyen, Chi H.
Noda, Kazuma
Park, Won-Kee
Sano, Kei
Takimoto, Kohji
Arai, Toshiaki
Bang, Seung-Cheol
Bangale, Priyadarshini
Furutani, Masaki
Hristov, Viktor
Kawano, Yuya
Kida, Arisa
Kojima, Tomoya
Lanz, Alicia
Matsumi, Chika
Mercado, Dale
Nakagawa, Shunsuke
Nakagawa, Tomoya
Nakahata, Shuta
Ohta, Ryo
Patru, Dorin
Shirahata, Mai
Suzuki, Hiroko
Takahashi, Aoi
Tamai, Momoko
Tramm, Serena
Tsumura, Kohji
Yamada, Yasuhiro
Wang, Shiang-Yu
contents The background light produced by emission from all sources over cosmic history is a powerful diagnostic of structure formation and evolution. At near-infrared wavelengths, this extragalactic background light (EBL) is comprised of emission from galaxies stretching all the way back to the first-light objects present during the Epoch of Reionization. The Cosmic Infrared Background Experiment 2 (CIBER-2) is a sounding-rocket experiment designed to measure both the absolute photometric brightness of the EBL over 0.5 - 2.0 microns and perform an intensity mapping measurement of EBL spatial fluctuations in six broad bands over the same wavelength range. CIBER-2 comprises a 28.5 cm, 80K telescope that images several square degrees to three separate cameras. Each camera is equipped with an HAWAII-2RG detector covered by an assembly that combines two broadband filters and a linear-variable filter, which perform the intensity mapping and absolute photometric measurements, respectively. CIBER-2 has flown three times: an engineering flight in 2021; a terminated launch in 2023; and a successful science flight in 2024. In this paper, we review the science case for the experiment; describe the factors motivating the instrument design; review the optical, mechanical, and electronic implementation of the instrument; present preflight laboratory characterization measurements; and finally assess the instrument's performance in flight.
format Preprint
id arxiv_https___arxiv_org_abs_2510_05210
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle The Cosmic Infrared Background Experiment-2: An Intensity Mapping Optimized Sounding-rocket Payload to Understand the Near-IR Extragalactic Background Light
Zemcov, Michael
Bock, James J.
Cooray, Asantha
Matsuura, Shuji
Lee, Dae-Hee
Fazar, Candice
Feder, Richard M.
Heaton, Grigory
Hashimoto, Ryo
Korngut, Phillip
Matsumoto, Toshio
Nguyen, Chi H.
Noda, Kazuma
Park, Won-Kee
Sano, Kei
Takimoto, Kohji
Arai, Toshiaki
Bang, Seung-Cheol
Bangale, Priyadarshini
Furutani, Masaki
Hristov, Viktor
Kawano, Yuya
Kida, Arisa
Kojima, Tomoya
Lanz, Alicia
Matsumi, Chika
Mercado, Dale
Nakagawa, Shunsuke
Nakagawa, Tomoya
Nakahata, Shuta
Ohta, Ryo
Patru, Dorin
Shirahata, Mai
Suzuki, Hiroko
Takahashi, Aoi
Tamai, Momoko
Tramm, Serena
Tsumura, Kohji
Yamada, Yasuhiro
Wang, Shiang-Yu
Instrumentation and Methods for Astrophysics
Cosmology and Nongalactic Astrophysics
Astrophysics of Galaxies
The background light produced by emission from all sources over cosmic history is a powerful diagnostic of structure formation and evolution. At near-infrared wavelengths, this extragalactic background light (EBL) is comprised of emission from galaxies stretching all the way back to the first-light objects present during the Epoch of Reionization. The Cosmic Infrared Background Experiment 2 (CIBER-2) is a sounding-rocket experiment designed to measure both the absolute photometric brightness of the EBL over 0.5 - 2.0 microns and perform an intensity mapping measurement of EBL spatial fluctuations in six broad bands over the same wavelength range. CIBER-2 comprises a 28.5 cm, 80K telescope that images several square degrees to three separate cameras. Each camera is equipped with an HAWAII-2RG detector covered by an assembly that combines two broadband filters and a linear-variable filter, which perform the intensity mapping and absolute photometric measurements, respectively. CIBER-2 has flown three times: an engineering flight in 2021; a terminated launch in 2023; and a successful science flight in 2024. In this paper, we review the science case for the experiment; describe the factors motivating the instrument design; review the optical, mechanical, and electronic implementation of the instrument; present preflight laboratory characterization measurements; and finally assess the instrument's performance in flight.
title The Cosmic Infrared Background Experiment-2: An Intensity Mapping Optimized Sounding-rocket Payload to Understand the Near-IR Extragalactic Background Light
topic Instrumentation and Methods for Astrophysics
Cosmology and Nongalactic Astrophysics
Astrophysics of Galaxies
url https://arxiv.org/abs/2510.05210