Magnetic World: Consensus, Separation, and Re-connection in Disciplinary Transformations of Geomagnetism in the 20th Century

磁世界:20世纪地磁学学科变革中的共识、分离与重新连接

基本信息

  • 批准号:
    0432202
  • 负责人:
  • 金额:
    $ 14.51万
  • 依托单位:
  • 依托单位国家:
    美国
  • 项目类别:
    Continuing Grant
  • 财政年份:
    2004
  • 资助国家:
    美国
  • 起止时间:
    2004-10-15 至 2007-09-30
  • 项目状态:
    已结题

项目摘要

Geomagnetism, one of the earliest geophysical sciences to be widely practiced, saw its first successful developments in the 19th century. From 1830 to 1900, proliferation and professionalization of observational programs and data reduction characterized the field. After 1900, geomagnetic researchers increased their activity as they adopted theories by C. F. Gauss and J. C. Maxwell and developed means to bridge the gulf between these theories and masses of data of global phenomena. This project examines three main streams in 20th-century geomagnetic research: investigations of processes deep inside the Earth that produce the main geomagnetic field, examinations of crustal magnetism, and research into processes on the edge of space, where Earth's magnetic field interacts with the interplanetary environment. This investigation places these research streams in the historical context of disciplinary specialization and transformation. This process provides the historiographic interest of this study. Intellectual Merit: In the early 20th century, geomagnetic researchers thought of their domain as all of Earth's magnetic and electric phenomena. Researchers at private institutions, government bureaus, and universities variously developed mathematical tools and magnetic instruments based on new technologies, undertook magnetic field surveys or worked in magnetic observatories or physics laboratories, or traced out new physical theories. They investigated secular variation, rock magnetism, and upper atmospheric electrical currents. But by mid-century, most researchers narrowed their gaze to just one problem area. This specialization contributed to a period of dramatic developments in the latter half of the century: geodynamo theory, paleomagnetic evidence of plate tectonics, computer modeling of magnetic reversals, and discovery of the solar wind and polar (magnetic) substorms. This project, however, poses disciplinary specialization as a research question: To what extent did these research areas become independent of each other? Significant continuities in instrumentation, theory, and analytical methods persisted much longer than a simple model of specialization suggests. This project compares how scientists in each of these subfields conducted their research and how they defined their communities. Building on extensive archival research for earlier periods, this project focuses mainly on 20th-century geomagnetic researchers. Recent research is to be documented through publications, attending scientific conferences, and discussions with researchers to delineate the boundaries and interactions of research programs.Broader Impact: Outcomes include articles, but the final products are a book on the history of geomagnetic research from 1800 to 2000 and an educational web-site. This project may contribute to a re-evaluation of change in the traditionally recognized scientific disciplines, it may allow a more complex understanding of the inter-field scientific research that is becoming ever more common, and it may raise the possibility of providing historical contexts for policy development in such sciences. The project will also integrate teaching with research through the use of a research assistant. A web site will be developed to make the results available for other educational institutions.
地磁学是最早广泛应用的地球物理科学之一,在 19 世纪首次得到成功发展。从 1830 年到 1900 年,观测计划的扩散和专业化以及数据缩减是该领域的特点。 1900 年后,地磁研究人员的活动不断增加,他们采用了 C. F. Gauss 和 J. C. Maxwell 的理论,并开发了弥合这些理论与全球现象大量数据之间鸿沟的方法。该项目研究了 20 世纪地磁研究的三大主流:研究地球深处产生主要地磁场的过程、检查地壳磁性以及研究太空边缘的过程(地球磁场与行星际相互作用)。环境。 这项调查将这些研究流置于学科专业化和转型的历史背景中。这一过程提供了本研究的史学兴趣。智力价值:20世纪初,地磁研究人员认为他们的领域是地球上所有的磁和电现象。私人机构、政府部门和大学的研究人员基于新技术开发了数学工具和磁仪器,进行了磁场调查或在磁观测站或物理实验室工作,或追溯了新的物理理论。他们研究了长期变化、岩石磁性和高层大气电流。但到了本世纪中叶,大多数研究人员将注意力集中在一个问题领域。这种专业化促成了本世纪后半叶的一段戏剧性发展:地球发电机理论、板块构造的古地磁证据、磁反转的计算机建模以及太阳风和极地(磁)亚暴的发现。然而,这个项目将学科专业化作为一个研究问题:这些研究领域在多大程度上彼此独立? 仪器、理论和分析方法的显着连续性比简单的专业化模型所表明的持续时间要长得多。该项目比较了每个子领域的科学家如何进行研究以及他们如何定义其社区。 该项目以早期广泛的档案研究为基础,主要关注 20 世纪的地磁研究人员。最近的研究将通过出版物、参加科学会议以及与研究人员的讨论来记录,以描绘研究项目的边界和相互作用。更广泛的影响:成果包括文章,但最终产品是一本关于从 1800 年到 1800 年地磁研究历史的书。 2000 年和一个教育网站。该项目可能有助于重新评估传统公认的科学学科的变化,可能使人们对日益普遍的跨领域科学研究有更复杂的理解,并可能提高为科学提供历史背景的可能性。此类科学的政策制定。该项目还将通过使用研究助理将教学与研究结合起来。将开发一个网站,以便将结果提供给其他教育机构。

项目成果

期刊论文数量(0)
专著数量(0)
科研奖励数量(0)
会议论文数量(0)
专利数量(0)

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Gregory Good其他文献

Nest architecture and genetic differentiation in a species complex of Australian stingless bees
澳大利亚无刺蜂物种复合体的巢结构和遗传分化
  • DOI:
  • 发表时间:
    2004
  • 期刊:
  • 影响因子:
    4.9
  • 作者:
    Pierre Franck;E. Cameron;Gregory Good;J. Rasplus;Benjamin P. Oldroyd
  • 通讯作者:
    Benjamin P. Oldroyd

Gregory Good的其他文献

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{{ truncateString('Gregory Good', 18)}}的其他基金

Taking the Earth's Pulse: The Development of Geomagnetics inNorth America
把握地球脉搏:北美地磁学的发展
  • 批准号:
    8618093
  • 财政年份:
    1987
  • 资助金额:
    $ 14.51万
  • 项目类别:
    Standard Grant

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