Hyperfield - Hyperspectral small satellites for improving life on Earth

T. Tikka, J. Makynen, M. Shimoni
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Abstract

Over the past few decades, Earth observation technology has provided highly useful information for global climate change research, particularly in providing biological, physical, and chemical parameters on a global scale. Nevertheless, the low revisit rate and spectral resolution, as well as the expensive operational capacities of current spaceborne missions, make it difficult to gain rapid and accurate insights into degrading ecosystems or dissect faltering food security or carbon sinks. The Hyperfield constellation that will be launched in 2023 consists of 100 CubeSats with hyperspectral imagers operating in the visible-to-near-infrared (VIS-NIR, 450–1100 nm) and Visible-to-shortwave infrared (VIS-SWIR, 450–2500 nm) ranges and provides two to three times daily images from any location on Earth. The hyperspectral is based on a Piezo-actuated Fabry-Perot interferometer (PFPI) and a tailored camera with innovative modes of acquisition. A novel artificial intelligence (AI) processing platform will be used to provide stakeholders with high-quality, affordable data, analytical services and forecasts on a daily basis, enabling them to make informed decisions that lead to a more sustainable environment, carbon sequestration, food security, and a reduction in climate change impacts. This paper presents the first and second generations of the Hyperfield satellites. It reviews their innovative platform and detector technology, the optical modes, planned mission operations, processing architecture and services.
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超视场-用于改善地球生命的高光谱小型卫星
在过去的几十年里,地球观测技术为全球气候变化研究提供了非常有用的信息,特别是在提供全球尺度的生物、物理和化学参数方面。然而,较低的重访率和光谱分辨率,以及当前星载任务昂贵的操作能力,使得难以快速准确地了解退化的生态系统,或剖析步履蹒跚的粮食安全或碳库。Hyperfield星座将于2023年发射,由100颗立方体卫星组成,其高光谱成像仪在可见光到近红外(VIS-NIR, 450-1100纳米)和可见光到短波红外(VIS-SWIR, 450-2500纳米)范围内工作,每天从地球上任何位置提供两到三次图像。高光谱基于压电驱动法布里-珀罗干涉仪(PFPI)和具有创新采集模式的定制相机。一个新的人工智能(AI)处理平台将用于为利益相关者提供高质量、负担得起的数据、分析服务和预测,使他们能够做出明智的决策,从而实现更可持续的环境、碳封存、粮食安全和减少气候变化影响。本文介绍了第一代和第二代超视场卫星。它回顾了他们的创新平台和探测器技术、光学模式、计划任务操作、处理架构和服务。
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