Rao Nithyanand
Department of Communication and the Science Studies Program, University of California, San Diego, USA.
Ber Wiss. 2025 Aug;48(1-2):163-179. doi: 10.1002/bewi.202400020. Epub 2025 Apr 16.
When cosmic rays-high-energy particles from outer space-encounter the Earth's atmosphere, they produce particles called neutrinos. To detect them, physicists go underground inside deep mines where the overlying rock can filter out the cosmic-ray background radiation. I examine how the first such detection of neutrinos in 1965 by an international team of physicists at the Kolar Gold Fields (KGF) in India-a gold mine where the British began mining in 1880-was made possible by the invisible labor of lowered-caste, or Dalit, miners. By studying the underground, this paper contributes to recent attention to verticality in the history of science, while moving away from the dominant approach to spatial studies of sites of science, the lab-field framework, and instead examining the social, political, and economic conditions that made KGF, with its depth, possible as a site for physics. Using labor histories of KGF and archival material about the experiments, I argue that the mines became nearly three kilometers deep only because of a regime of racialized labor in which Dalit miners worked in difficult and dangerous conditions for less than subsistence-level wages. I also show how the experiments depended on this invisible labor that ran the mines.
当宇宙射线——来自外层空间的高能粒子——与地球大气层相遇时,它们会产生一种叫做中微子的粒子。为了探测中微子,物理学家会深入地下矿井,那里覆盖的岩石可以过滤掉宇宙射线背景辐射。我研究了1965年一个国际物理学家团队在印度科拉尔金矿(KGF)首次探测到中微子的情况是如何成为可能的,该金矿是英国人于1880年开始开采的一座金矿,而这一探测是由低种姓矿工,即达利特矿工的无形劳动促成的。通过研究地下环境,本文有助于最近人们对科学史中垂直性的关注,同时摆脱科学场所空间研究的主导方法,即实验室-实地框架,转而考察使科拉尔金矿因其深度而成为物理学研究场所成为可能的社会、政治和经济条件。利用科拉尔金矿的劳动史和有关实验的档案材料,我认为这些矿井之所以能挖到近三公里深,只是因为一种种族化的劳动制度,在这种制度下,达利特矿工在艰难危险的条件下工作,工资却低于维持生计的水平。我还展示了这些实验是如何依赖于运营矿井的这种无形劳动的。