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Pollux欧洲仪器概念用于HWO:从远紫外到近红外的高分辨率光谱仪和光谱偏振计

The Pollux European instrument concept for HWO: a high-resolution spectrograph and spectropolarimeter from the far-UV to the near-IR

LIRA, Paris Observatory, CNRS, PSL University, Sorbonne University, Université Paris Cité, CY Cergy Paris University(巴黎天文台);Aix Marseille University, CNRS, CNES, LAM(艾克斯-马赛大学);Space Research Institute, Austrian Academy of Sciences(奥地利科学院空间研究所);Department of Physics, University of Oxford(牛津大学物理系);AEGORA Research Group – Joint Center for Ultraviolet Astronomy, Universidad Complutense de Madrid(马德里康普顿斯大学);Université de Strasbourg, CNRS, Observatoire Astronomique de Strasbourg(斯特拉斯堡大学)

Coralie Neiner, Jean-Claude Bouret, Luca Fossati, David le Mignant, Eduard Muslimov, Ana Ines Gomez de Castro, Frédéric Marin

AI总结:

Pollux欧洲仪器概念用于HWO,提供高分辨率光谱仪和光谱偏振计,用于研究恒星、行星系统及宇宙生态系统。

摘要:

Pollux是一种从100纳米到1.8微米工作的高分辨率光谱仪和光谱偏振计,由欧洲联盟提议用于HWO。Pollux将使我们能够研究恒星和(外)行星系统,以及宇宙生态系统。例如,Pollux将为系外行星的形成和演化提供新的见解, characterization of the atmospheres and magnetospheres of stars and planets, and star-planet interactions. It will also allow us to resolve narrow UV emission and absorption lines, enabling us to follow the baryon cycle over cosmic time -- from galaxies forming stars out of interstellar gas and grains, and planets forming in circumstellar disks, to the various forms of feedback into the interstellar and intergalactic medium -- and from active galactic nuclei. The most innovative characteristic of Pollux is its unique spectropolarimetric capability in the UV, which will open a new parameter space. Its very high spectral resolution (~70000 to ~100000) and stability over a very large wavelength range will also be a major asset. In this paper, we summarize the main scientific drivers of Pollux and present its current design, technological challenges, and the Pollux consortium organization.

英文摘要:

Pollux is a high-resolution spectrograph and spectropolarimeter working from 100 nm to 1.8 microns proposed for HWO by a European consortium. Pollux will allow us to study stellar and (exo)planetary systems, as well as cosmic ecosystems. For example, Pollux will provide new insights on exoplanet formation and evolution, characterization of the atmospheres and magnetospheres of stars and planets, and star-planet interactions. It will also allow us to resolve narrow UV emission and absorption lines, enabling us to follow the baryon cycle over cosmic time -- from galaxies forming stars out of interstellar gas and grains, and planets forming in circumstellar disks, to the various forms of feedback into the interstellar and intergalactic medium -- and from active galactic nuclei. The most innovative characteristic of Pollux is its unique spectropolarimetric capability in the UV, which will open a new parameter space. Its very high spectral resolution (~70000 to ~100000) and stability over a very large wavelength range will also be a major asset. In this paper, we summarize the main scientific drivers of Pollux and present its current design, technological challenges, and the Pollux consortium organization.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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