著者
詫間 直樹 中島 秀人
出版者
日本科学史学会
雑誌
科学史研究 (ISSN:21887535)
巻号頁・発行日
vol.52, no.266, pp.81-91, 2013 (Released:2021-07-12)

The Fukushima Daiichi Nuclear Disaster has revealed the huge potential risk inherent in nuclear power generation. It adds very much to the existing energy problems such as depletion of fuels and global warming. To achieve substantial reduction in both fossil and nuclear energy, not only the enhancement of renewable energy on the supply-side but also the suppression of energy consumption on the demand-side would be required. Low-energy building technology is considered an effective means of energy consumption reduction. EU is the front-runner of this field, in terms of the level of technology, the adequacy of regulation, and the degree of diffusion. This implies that the development of low-energy building technology in Europe is worth historical study. With regard to historiography, we emphasize the complex nature of technological developments. It is not a linear, steady process. It turns and twists. A technological path is a result of aggregation of interactions - either conflicts or collaborations - among a variety of heterogeneous actors. Such complexity and heterogeneity often enrich the quality of technological development, according to the debates on the "resistance to new technologies " and the "unlocking of technological trajectories ". We also indicate some historical lessons such as the role of new entrants, the necessity of nurturing space for innovation, and the importance of sharing the basic concept of the technology among related actors.

1 0 0 0 OA 紹介

出版者
日本科学史学会
雑誌
科学史研究 (ISSN:21887535)
巻号頁・発行日
vol.52, no.266, pp.101-102, 2013 (Released:2021-07-12)

1 0 0 0 OA 紹介

出版者
日本科学史学会
雑誌
科学史研究 (ISSN:21887535)
巻号頁・発行日
vol.51, no.264, pp.253, 2012 (Released:2021-07-20)

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出版者
日本科学史学会
雑誌
科学史研究 (ISSN:21887535)
巻号頁・発行日
vol.51, no.263, pp.181-189, 2012 (Released:2021-07-20)
著者
日野川 静枝
出版者
日本科学史学会
雑誌
科学史研究 (ISSN:21887535)
巻号頁・発行日
vol.51, no.264, pp.199-209, 2012 (Released:2021-07-20)

This paper examines the way the University of California's Radiation Laboratory, which was at the center of cyclotron development in the 1930s, became a center of military research for the development of new weapons. Focusing on Alfred Lee Loomis (1887-1975), the author elucidates the nature of his relationship with the Radiation Laboratory from late 1939 through the autumn of 1940. Three points are clarified: 1) Loomis' role in getting a 184-inch cyclotron planned: 2) the significance of his presence as Lawrence's "partner" in getting the actual construction started; and 3) Loomis' role in getting the Radiation Laboratory's microwave research incorporated into the National Defense Research Committee's military research.
著者
水沢 光
出版者
日本科学史学会
雑誌
科学史研究 (ISSN:21887535)
巻号頁・発行日
vol.51, no.264, pp.210-219, 2012 (Released:2021-07-20)

In 1939, Japan's Ministry of Education established the Subsidiary Fund for Scientific Research, a predecessor to the Grant-in-Aid for Scientific Research (KAKENHI), which supported basic scientific research in Japan. The budget of this Fund was twice the sum of the existing research grants. Even though the Second Sino-Japanese War was in progress, the Ministry of Education emphasized the need for basic scientific research. Previous studies site impact of scientific blockade against Japan or then Minister's influence as main reason for Establishment of the Subsidiary Fund for Scientific Research. However, the ban was not serious in 1939; in fact, from 1936 to 1940, foreign books and magazines were available in Japan. The Ministry of Education had started searching for new ways to promote science and its study well before the change in government. Therefore, the information from previous studies is inadequate. In this paper, the author focuses on the "unsustainable development of applied research" during the Second Sino-Japanese War. When the war started, the scientific community started providing applied research in response to wartime demands. Scientists started working towards allaying the shortage in natural resources and military material that had been brought about by the economic block against Japan. It became obvious then that a lack of talented scientists, scientific facilities, and research funds were hindering the progress of applied research. Scientists started asking the Ministry of Education to swiftly employ measures to promote science. This resulted in the Ministry establishing the Subsidiary Fund for Scientific Research. In prewar Japan, the environment for academic research was very poor; due to this, a single-minded focus on applied research was unsustainable.
著者
矢口 直英
出版者
日本科学史学会
雑誌
科学史研究 (ISSN:21887535)
巻号頁・発行日
vol.51, no.263, pp.129-137, 2012 (Released:2021-07-20)

It is often stated that physicians in medieval Islam followed Galen in assuming that there were three kinds of pneumata (psychic, vital and natural) in human beings. This article examines the concept of the third kind of pneuma, the natural pneuma (ruh tabi i), in the medical theory of Ibn Sina (d. 1037). The examination of his medical works reveals that while Ibn SinS had some clear ideas about the workings of the vital and psychic pneumata, he proposed no definite theory of the natural pneuma. He refers only very rarely to the natural pneuma in his Canon of Medicine, Poem of Medicine and On Cardiac Medicaments, and in those few instances the natural pneuma is explained simply as being parallel to the other two pneumata in that it has its seat in a specific organ, is distributed through a specific passage, and gives rise to a specific faculty, namely that it is located in the liver, travels through veins, and gives rise to the natural faculty, just as the vital pneuma, with its source in the heart, travels through the arteries to give rise to the vital faculty, and the psychic pneuma, with its source in the brain, travels through the nerves to give rise to the psychic faculty. In sum, in the medical thought of Ibn Sina, the natural pneuma exists merely as a parallel to the other two pneumata, so as to ensure the existence of a triadic system in the human body.
著者
和田 正法
出版者
日本科学史学会
雑誌
科学史研究 (ISSN:21887535)
巻号頁・発行日
vol.51, no.263, pp.148-159, 2012 (Released:2021-07-20)

The first 23 graduates of the Imperial College of Engineering in Tokyo, or Kobu-Daigakko, founded the Society of Engineering, or Kogakkai, in 1879 as an alumni association. After 1882, the society began allowing other engineers to become regular members. This paper discusses the process how this private organization turned into a public society by uncovering the detail of its early history: establishment; formation of the rule, meetings, the bulletin and journal; registration of other engineers; and the role of Yozo Yamao. Initially, the leading members had been doing only administrative works at the monthly meetings, such as collecting membership fees and revising the rules. The members gradually began holding seminars on industrial and engineering topics. In 1880, they began circulating a bulletin, Kogaku Soshi(later Kogakkai-shi), for the members, and printed eight issues. In response to the requests of non-members, they published the bulletin publicly the following year. In 1882, the society asked a prominent leading figure of engineering Yozo Yamao, one of the co-founders of the Imperial College of Engineering, to be president. Yamao did not engage in any activities while he was president, but he played a role, as a representative, in giving the society wider legitimacy in the engineering world. The early history of the society indicates that the graduates of the College took an active part in the academic field of engineering. Within two years of the 23 members graduating, they made the society a leader in the underdeveloped community of late 19th-century Japan.