Supporting capabilities for underground facilities

A. Kamaha, Brian L. Mount, R. Schnee
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引用次数: 1

Abstract

The 2021 particle physics community study, known as"Snowmass 2021", has brought together particle physicists around the world to create a unified vision for the field over the next decade. One of the areas of focus is the Underground Facilities (UF) frontier, which addresses underground infrastructure and the scientific programs and goals of underground-based experiments. To this effect, the UF Supporting Capabilities topical group created two surveys for the community to identify potential gaps between the supporting capabilities of facilities and those needed by current and future experiments. Capabilities surveyed are discussed in this report and include underground cleanroom space size and specifications, radon-reduced space needs and availability, the assay need and other underground space needs as well timeline for future experiments. Results indicate that future, larger experiments will increasingly require underground assembly in larger, cleaner cleanrooms, often with better radon-reduction systems and increased monitoring capability for ambient contaminants. Most assay needs may be met by existing worldwide capabilities with organized cooperation between facilities and experiments. Improved assay sensitivity is needed for assays of bulk and surface radioactivity for some materials for some experiments, and would be highly beneficial for radon emanation.
地下设施配套能力
2021年粒子物理社区研究被称为“2021雪团”,汇集了世界各地的粒子物理学家,为该领域未来十年的发展制定了统一的愿景。其中一个重点领域是地下设施(UF)前沿,它涉及地下基础设施和地下实验的科学计划和目标。为此,UF支持能力专题小组为社区创建了两个调查,以确定设施支持能力与当前和未来实验所需的设施之间的潜在差距。本报告讨论了所调查的能力,包括地下洁净室空间的大小和规格、减少氡的空间需求和可用性、分析需求和其他地下空间需求以及未来实验的时间表。结果表明,未来更大规模的实验将越来越需要在更大、更清洁的洁净室中进行地下组装,这些洁净室通常具有更好的氡还原系统和更强的环境污染物监测能力。通过设施和实验之间有组织的合作,现有的全球能力可以满足大多数分析需求。在某些实验中,某些材料的体积和表面放射性分析需要提高分析灵敏度,这对氡辐射非常有益。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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