论文标题
开发能够在太空中运行的中微子检测器
Development of a neutrino detector capable of operating in space
论文作者
论文摘要
$ν$ SOL实验以在靠近太阳的附近操作中微子检测器的实验正在建造一个小的测试探测器,以绕地球绕地球测试空间中的概念。该探测器概念是提供一种新的方法来检测空间中未屏蔽的中微子。镀具有的双延迟巧合的巧克力巧克力是在太阳中微子相互作用的较大横截面,该相互作用发出了转换电子,并将核转化为激发汁液的激发态,该夜含的能量和半寿命衰减。这种独特的签名允许检测器体积在空间中大部分未屏蔽的操作,而伽马和宇宙射线事件的单个粒子计数率很高。 The test detector concept which has been studied in the lab and is planned for a year of operations orbiting Earth which is scheduled for launch in late 2024. It will be surrounded by an active veto and shielding will be operated in a polar orbit around the Earth to validate the detector concept and study detailed background spectrums that can fake the double timing and energy signature from random galactic cosmic or gamma rays.这项新技术开发的成功将允许设计更大的航天器,其使命是靠近太阳,并且对NASA太空科学任务局的Heliophysics部门的主要科学任务非常重要,这是通过测量我们太阳融合核心的细节来更好地理解太阳。
The $ν$SOL experiment to operate a neutrino detector close to the Sun is building a small test detector to orbit the Earth to test the concept in space. This detector concept is to provide a new way to detect neutrinos unshielded in space. A double delayed coincidence on Gallium nuclei that have a large cross section for solar neutrino interactions emitting a conversion electron and converting the nuclei into an excited state of Germanium, which decays with a well-known energy and half-life. This unique signature permits operation of the detector volume mostly unshielded in space with a high single particle counting rate from gamma and cosmic ray events. The test detector concept which has been studied in the lab and is planned for a year of operations orbiting Earth which is scheduled for launch in late 2024. It will be surrounded by an active veto and shielding will be operated in a polar orbit around the Earth to validate the detector concept and study detailed background spectrums that can fake the double timing and energy signature from random galactic cosmic or gamma rays. The success of this new technology development will permit the design of a larger spacecraft with a mission to fly close to the Sun and is of importance to the primary science mission of the Heliophysics division of NASA Space Science Mission Directorate, which is to better understand the Sun by measuring details of our Sun's fusion core.