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Design of a next generation synoptic solar observing network: solar physics research integrated network group (SPRING)

机译:下一代天气太阳观测网络的设计:太阳物理研究综合网络小组(SPRING)

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Long-term synoptic observations of the Sun in different wavelength regions are essential to understand its secular behavior. Such observations have proven very important for discovery of 11 year solar activity cycle, 22 year magnetic cycle, polar field reversals, Hale's polarity law, Joy's law, that helped Babcock and Leighton to propose famous solar dynamo model. In more recent decades, the societal impact of the secular changes in Sun's output has been felt in terms of solar inputs to terrestrial climate-change and space-weather hazards. Further, it has been realized that to better understand the activity phenomena such as flares and coronal mass ejections (CMEs) one needs synoptic observations in multiple spectral lines to enable tomographic inference of physical parameters.Currently, there are both space and ground based synoptic observatories. However, given the requirements for the long-term stability and reliability of such synoptic datasets, ground-based facilities are more preferable. Also, the ground based observatories are easy to maintain or upgrade while detailed and frequent calibrations are easily possible. The only ground-based facility that currently provides full-disk velocity and magnetic field maps of the Sun around the clock and at good cadence, is the Global Oscillations Network Group (GONG) network of National Solar Observatory (NSO) which is operational since the mid 90s. Due to its aging instrumentation, operating for nearly three decades, and new requirements to obtain multi-wavelength observations, a need is felt in the solar community to build a next generation synoptic observatory network. A group of international observatories have come together under the auspices of SOLARNET program, funded by European Union (EU), to carryout a preliminary design study of such a synoptic solar observing facility called "SPRING", which stands for Solar Physics Research Integrated Network Group. In this article we will present concept of SPRING and the optical design concept of its major instruments.
机译:对太阳在不同波长区域的长期天气观测对于了解其长期行为至关重要。事实证明,这样的观察对于发现11年太阳活动周期,22年磁周期,极性反转,Hale极性定律,Joy定律非常重要,这有助于Babcock和Leighton提出了著名的太阳发电机模型。在最近的几十年中,从太阳对陆地气候变化和空间天气危害的投入方面,人们已经感受到了太阳输出的长期变化对社会的影响。此外,已经认识到,为了更好地了解诸如耀斑和日冕物质抛射(CME)之类的活动现象,人们需要在多条谱线上进行天气观测,以便对物理参数进行断层成像推断。目前,有基于空间和地面的天气观测站。但是,考虑到对此类天气数据集的长期稳定性和可靠性的要求,更优选地面设施。同样,地面天文台易于维护或升级,同时容易进行详细且频繁的校准。目前,唯一可提供全天候且全天候的全盘速度和太阳磁场图的地面设施是国家太阳观测台(NSO)的全球涛动网络组(GONG)网络,该网络自90年代中期。由于其老化的仪器运行了将近三十年,并且需要获得多波长观测的新要求,因此太阳能社区需要建立下一代天气观测网络。由欧洲联盟(EU)资助的SOLARNET计划的主持下,一组国际天文台汇聚一堂,对名为“ SPRING”的天气观测台进行了初步设计研究,“ SPRING”代表太阳物理研究综合网络组。 。在本文中,我们将介绍SPRING的概念及其主要仪器的光学设计概念。

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