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“Electron Theory” and the Emergence of Atomic Physics in Japan

Published online by Cambridge University Press:  05 September 2018

Kenji Ito*
Affiliation:
SOKENDAI (The Graduate University for Advanced Studies) E-mail: [email protected]

Argument

This paper discusses one aspect of the context in which atomic physics developed in Japan between 1905 and 1931. It argues that during this period, there was a social context in which atomic physics was valued as a study of the electron and was thus relevant to electrical engineering. To demonstrate this, I first show that after the Russo-Japanese War, electrical engineering was deemed a valuable and viable field of research in Japan. Second, I show that physicists wrote textbooks and popular accounts about the electron, covering topics from both atomic physics and electrical engineering and presenting the former as relevant to the latter. Finally, as an example of how atomic physics partially emerged from this context, I discuss the group of Kujirai Tsunetarō, an electrical engineer who worked in the physics department of the Institute for Physical and Chemical Research (RIKEN). From Kujirai's group, Nishina Yoshio started his career and became the most important Japanese atomic and nuclear physicist of the 1930s.

Type
Research Article
Copyright
Copyright © Cambridge University Press 2018 

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References

Aaserud, Finn. 1990. Redirecting Science: Niels Bohr, Philanthropy, and the Rise of Nuclear Physics. Cambridge: Cambridge University Press.Google Scholar
Abiko, Seiya. 2006. “Kuwaki Ayao ‘Zettai undōron’ ni okeru sōtai undō gainen [The concept of relative motions in Kuwaki Ayao's theory of absolute motions].” Kagakushi kenkyū 45:185–88.Google Scholar
Adas, Michael. 1989. Machines as the Measure of Men: Science, Technology, and Ideologies of Western Dominance. Ithaca and London: Cornell University Press.Google Scholar
Aichi, Keiichi. 1923. Denshi no jijoden [The autobiography of an electron]. Tokyo: Shōkabō.Google Scholar
Arabatzis, Theodore. 2006. Representing Electrons: A Biographical Approach to Theoretical Entities. Chicago: University of Chicago Press.Google Scholar
Ariga, Nobumichi. 2013. “Rōrentsu Butsurigaku nihongoban no seiritsu to sono haikei [Making the Japanese Edition of Lorentz's Physics: Nagaoka, Kuwaki, and the Electron Theory around 1900].” Bulletin of the National Museum of Nature and Science 36:718.Google Scholar
Ariyama, Teruo. 2013. Jōhō haken to teikoku Nihon I: Kaitei kēburu to tsūshinsha no tanjō; [Information hegemony and Imperial Japan 1: From submarine cables to the birth of news agencies]. Tokyo: Yoshikawa Kōbunkan.Google Scholar
Bartholomew, James R. 1989. The Formation of Science in Japan: Building a Research Tradition. New Haven: Yale University Press.Google Scholar
Daiichi Kōtōgakkō. 1907. Daiichi Kōtōgakkō ichiran: Meiji 39-nen-40-nen [The Catalogue of First Higher School, from Meiji 39 to 40]. Tokyo: Tokyo Daiichi Kōtōgakkō.Google Scholar
Daston, Lorraine, ed. 1999. Biographies of Scientific Objects. Chicago: University of Chicago Press.Google Scholar
Dempa Kanri Iinkai, ed. 1951. Nihon musenshi [The history of wireless in Japan]. Vol. 3. Tokyo: Dempa Kanri Iinkai.Google Scholar
Denkigakkai, ed. 1931. Denshi kōgaku no riron to ōyō; [Theory and application of electronics]. Tokyo: Denkigakkai.Google Scholar
Doi, Uzumi. 1922. Ainsutain sōtaisei riron no hitei [Refutation of Einstein's theory of relativity]. Tokyo: Shōbunkan.Google Scholar
E. R. 1921. “Baron T. Kikuchi.” Nature 107 (2681):8384.Google Scholar
Fujioka, Yoshio. 1963. “Nihon bunkōgaku shijō ni okeru Nagaoka Hantarō to Takamine Toshio [Dr. T. Takamine and Dr. H. Nagaoka, Pioneers of Spectroscopy in Japan].” Bunkōkenkyū 12 (1):47.Google Scholar
Fujioka, Yoshio, ed. 1964. Takamine Toshio to bunkōgaku [Takamine Toshio and spectroscopy]. Tokyo: Ōyō Kōgaku Kenkyūjo.Google Scholar
Galison, Peter L. 1983. “The Discovery of Muon and the Failed Revolution against Quantum Electrodynamics.” Centaurus 26:262316.Google Scholar
Galison, Peter L. 1987. How Experiments End. Chicago: University of Chicago Press.Google Scholar
Gearhart, Clayton A. 2010. “‘Astonishing Successes’ and ‘Bitter Disappointment’: The Specific Heat of Hydrogen in Quantum Theory.” Archive for History of Exact Sciences 64:113202.Google Scholar
Gibson, Charles R. 1906. The Romance of Modern Electricity: Describing in Non-Technical Language What Is Known about Electricity and Many of Its Interesting Applications. London: Seeley & Co. Limited.Google Scholar
Gibson, Charles R. 1911. The Autobiography of an Electron, Wherein the Scientific Ideas of the Present Time Are Explained in an Interesting and Novel Fashion. London: Seeley & Co. Limited.Google Scholar
Gibson, Charles R. 1914. Wireless Telegraphy and Telephony without Wires: A Popular Account of the Past and Present of Wireless Telegraphy and Telepony Which Assumes No Knowledge on the Part of the Reader. London: Seeley & Co. Limited.Google Scholar
Gibson, Charles R. 1915. Musen denshin oyobi musen denwa [Wireless telegraphy and telephony without wires]. Translated by Sekizawa, San'ichi. Tokyo: Bunmei Shoin.Google Scholar
Gooday, Graeme. 2004. “Ayrton, William Edward (1847-1908).” In Oxford Dictionary of National Biography: In Association with the British Academy: From the Earliest Times to the Year 2000, edited by Matthew, Henry Colin Gray and Harrison, Brian Howard, 4851. Oxford: Oxford University Press.Google Scholar
Gooday, Graeme. 2008. Domesticating Electricity: Technology, Uncertainty and Gender, 1880–1914. London: Pickering & Chatto.Google Scholar
Headrick, Daniel R. 1991. The Invisible Weapon: Telecommunications and International Politics 1851–1945. Oxford: Oxford University Press.Google Scholar
Heilbron, John L. 1990. Lawrence and His Laboratory: A History of the Lawrence Berkeley Laboratory, Volume 1. Berkeley: University of California Press.Google Scholar
Hirosige, Tetu. 1973. Kagaku no shakaishi: Kindai Nihon no kagaku taisei [Social history of science: Scientific regime of modern Japan]. Tokyo: Chūōkōronsha.Google Scholar
Hirosige, Tetu. 1974. “Social Conditions for Prewar Japanese Research in Nuclear Physics.” In Science and Society in Modern Japan: Selected Historical Sources, edited by Nakayama, Shigeru, Swain, David L., and Yagi, Eri, 202–20. Tokyo: University of Tokyo Press.Google Scholar
Hon, Giora. 1995. “Is the Identification of Experimental Error Contextually Dependent? The Case of Kaufmann's Experiment and Its Varied Reception.” In Scientific Practice: Theories and Stories of Doing Physics, edited by Buchwald, Jed Z., 170223. Chicago: University of Chicago Press.Google Scholar
Hon, Giora. 2003. “Contextualizing an Epistemological Issue: The Case of Error in Experiment.” In The Vienna Circle and Logical Empiricism: Re-Evaluation and Future Perspectives, edited by Stadler, Friedrich, 253–63. Dordrecht: Kluwer Academic Publishers.Google Scholar
Hoshiai, Masaharu, and Honda, Kanji. 1936. Denshi to sono sayō [The electron and its effects]. Tokyo: Ōmusha.Google Scholar
Hoshiai Masaharu Sensei Tsuitō Kinenkai, ed. 1988. Hoshiai Masaharu sensei no omoide [Memories of Professor Hoshiai Masaharu]. Tokyo: Hoshiai Masaharu Sensei Tsuitō Kinenkai.Google Scholar
Imaichi, Masayoshi, and Hara, Mitsumasa. 1950. “Hompō ni okeru X-sen no shoki jikken [Early experiments on X-rays in Japan].” Kagakushi kenkyū; 16:2332.Google Scholar
Itakura, Kiyonobu, Kimura, Tōsaku, and Yagi, Eri. 1973. Nagaoka Hantarō den [A biography of Nagaoka Hantarō]. Tokyo: Asahi Shimbunsha.Google Scholar
Itakura, Kiyonobu, and Yagi, Eri. 1974. “The Japanese Research System and the Establishment of the Institute of Physical and Chemical Research.” In Science and Society in Modern Japan, edited by Nakayama, Shigeru, Swain, David L., and Yagi, Eri, 158201. Tokyo: University of Tokyo Press.Google Scholar
Ito, Kenji. 2002. “Making Sense of Ryoshiron (Quantum Theory): Introduction of Quantum Mechanics into Japan, 1920–1940.” Ph.D. diss. Harvard University.Google Scholar
Ito, Kenji. 2013. “Superposing Dynamos and Electrons: Electrical Engineering and Quantum Physics in the Case of Nishina Yoshio.” In Traditions and Transformations in the History of Quantum Physics, edited by Shaul Katzir, Christoph Lehner, and Jürgen Renn, 183208. Berlin: Edition Open Access.Google Scholar
Ito, Kenji. 2015a. “‘Ronbun’ no nai kagakusha Kuwaki Ayao (1): Shoki no gyōseki to butsurigakushi teki haikei [Kuwaki Ayao, a scientist without papers (1): Early work and its scientific background].” Kyūri 1 (July):4047.Google Scholar
Ito, Kenji. 2015b. “‘Ronbun’ no nai kagakusha Kuwaki Ayao (2): Yōroppa ryūgaku to sōtairon [Kuwaki Ayao, a scientist without papers (2): Study abroad in Europe and relativity theory].” Kyūri 2 (October):3947.Google Scholar
Ito, Kenji. 2016a. “‘Ronbun’ no nai kagakusha Kuwaki Ayao (3): Butsurigaku tetsugaku kagakushi [Kuwaki Ayao, a scientist without papers (3): Physics, philosophy, and the history of science].” Kyūri 3 (February):4451.Google Scholar
Ito, Kenji. 2016b. “Aichi Keiichi to Denshi no jijoden (1) Wagahai wa denshi dearu [Aichi Keiichi and The Autobiography of an Electron (1): I am an electron].” Kyūri 5 (December): 3144.Google Scholar
Ito, Kenji. 2017. “Aichi Keiichi to Denshi no jijoden (2): Chāruzu Gibuson no koto [Aichi Keiichi and The Autobiography of an Electron (2): On Charles Gibson].” Kyūri 6 (March): 3342.Google Scholar
Ito, Kenji. 2018. “Mizuno Toshinojō to denshiron (2): Denkigaku to denshiron [Mizuno Toshinojō and Electron Theory].” Kyūri 9 (March):4653.Google Scholar
Kakinuma, Usaku. 1914. “Three Phase Generators and Induction Motor under Unsymmetrical Three Phase System.” B.A. thesis, Tokyo Imperial University.Google Scholar
Kakinuma, Usaku. 1928. “On the Structure of an Electron. Part I.” Nippon Sugaku-Butsurigakkwai Kizi Dai 3ki 10 (11):235–42.Google Scholar
Kakinuma, Usaku. 1929. “On the Structure of an Electron. Part II.” Nippon Sugaku-Butsurigakkwai Kizi Dai 3ki 11 (1–2):111.Google Scholar
Kakinuma, Usaku. 1930a. “Interpretation of Planck's Constant in Connection with the Electronic Structure.” Nippon Sugaku-Butsurigakkwai Kizi Dai 3ki 12 (5):101–10.Google Scholar
Kakinuma, Usaku. 1930b. “The Equations of Motion of the Electron.” Proceedings of the Physico-Mathematical Society of Japan. 3rd Series 12 (7):159–66.Google Scholar
Kakinuma, Usaku. 1931. “On the Five-Dimensional Formulation of the ‘Wave Equation for the Electron.’Proceedings of the Physico-Mathematical Society of Japan. 3rd Series 13 (6):183–88.Google Scholar
Kikkawa, Takeo. 2004. Nihon denryokugyō hatten no dainamizumu [Dynamism of the developments of electric power industry in Japan]. Nagoya: University of Nagoya Press.Google Scholar
Kikuchi, Taiji. 1918. “A Note on a New Kind of Frequency-Transformer.” Tokyo Sūgaku-Buturigakkwai Kizi Dai 2 Ki 9 (22):542–47.Google Scholar
Kikuchi, Taiji. 1919. “On the Theory of ‘Pliotron’ Oscillator.” Nippon Sūgaku-Buturigakkwai Kizi Dai 3 Ki 1 (2):1429.Google Scholar
Kikuchi Kinen Jigyōkai Henshū Iinkai, ed. 1978. Kikuchi Seishi: Gyōseki to tsuisō [Kikuchi Seishi: Achievements and memories]. Tanashi: Kikuchi Kinen Jigyōkai Henshū Iinkai.Google Scholar
Kim, Dong-Won. 2007. Yoshio Nishina: Father of Modern Physics in Japan. New York: Taylor & Francis.Google Scholar
Kimura, Isao. 2006. Nihonkai kaisen to media: Akiyama Saneyuki shinwa hihan [The Battle of Tsushima and the media: A criticism of the myth of Akiyama Saneyuki]. Tokyo: Kōdansha.Google Scholar
Kimura, Shunkichi. 1905. Sekai no musen denshin[Wireless telegraphy of the world]. Tokyo: Uchida Rōkakuhō.Google Scholar
Kimura, Shunkichi. 1945. “Nihonkaigun shoki musen denshin omoidedan [Memoires of early history of wireless telegraphy in the Japanese Imperial Navy].” Kagakushi kenkyū 9:7597.Google Scholar
Kita, Masami. 2007. Oyatoi gaikokujin Henrī Daiā: Kindai (kōgyō) gijutsu kyōiku no chichi shodai Tōdai token (kyōtō) no shōgai [Employed foreigner Henry Dyer: The life of the father of modern engineering education and the first principal of the University of Tokyo]. Tokyo: Bunsei Shoin.Google Scholar
Klein, Oskar, and Nishina, Yoshio. 1929. “Über die Streuung von Strahlung durch freie Elektronen nach der neuen relativistischen Quantendynamik von Dirac.” Zeitschrift für Physik 52 (11–12):853–68.Google Scholar
Ko Kujirai Tsunetarō Kyōju Kinenjigyō Iinkai, ed. 1936. Kujirai kyōju no kenkyū to hatsumei [Professor Kujirai's research and inventions]. Tokyo: Ōmusha.Google Scholar
Kōgaku Kōgyōshi Henshūkai, ed. 1955. Nihon no kōgaku kōgyōshi [The history of optic industry in Japan]. Tokyo: Kōgaku Kōgyōshi Henshūkai.Google Scholar
Koizumi, Kenkichiro. 1975. “The Emergence of Japan's First Physicists: 1868–1900.” Historical Studies in the Physical Sciences 6:3108.Google Scholar
Kragh, Helge. 1999. Quantum Generations: A History of Physics in the Twentieth Century. Princeton: Princeton University Press.Google Scholar
Kujirai, Tsunetarō. 1910. Shindō Denryū Hasseisōchi [Generator of oscilating currents]. Japan Patent 18217, filed on March 15, issued 1910.Google Scholar
Kujirai, Tsunetarō. 1911. Shindō Denryū Hasseisōchi [Generator of oscillating currents]. Japan Patent 21351, filed on July 21, 1911, issued 1911.Google Scholar
Kujirai, Tsunetarō. 1912a. “Musen denwa ni tsuite.” Denkigakkai zasshi 32 (293):11251210.Google Scholar
Kujirai, Tsunetarō. 1912b. Shindō Denryū Hasseisōchi [Generator of oscillating currents]. Japan Patent 22415, filed on June 17, issued 1912.Google Scholar
Kuwaki, Ayao. 1906. “Zettai undō ron [A theory of absolute motions].” Tokyo Butsurigakkō zasshi 15 (180):494508.Google Scholar
Kuwaki, Ayao. 1907. “Denshi no keijō ni tsuite [On the shape of the electron].” Tokyo Butsurigakkō zasshi 16 (183):7380.Google Scholar
Kuwaki, Ayao. 1921. Butsurigaku joron [An introduction to physics]. Tokyo: Shimoide Shoten.Google Scholar
Latour, Bruno. 1987. Science in Action: How to Follow Scientists and Engineers through Society. Cambridge: Harvard University Press.Google Scholar
Leane, Elizabeth. 2007. Reading Popular Physics: Disciplinary Skirmishes and Textual Strategies. Aldershot: Ashgate.Google Scholar
Lodge, Oliver. 1903a. “Electricity and Matter.” Nature 67 (1741):449–53.Google Scholar
Lodge, Oliver. 1903b. “Saikin no busshitsukan [Recent views on matter].” Translated by Aichi, Keiichi. Tōyō gakugei zasshi 20 (277):216–22.Google Scholar
Lorentz, Hendrik Antoon. 1906-7. Lehrbuch der Physik zum Gebrauche bei akademischen Vorlesungen. 2 vols. Leipzig: Barth.Google Scholar
Lorentz, Hendrik Antoon. 1913. Rōrentsushi butsurigaku [Physics by Mr. Lorentz]. Translated by Nagaoka, Hantarō and Kuwaki, Ayao. Tokyo: Fuzanbō.Google Scholar
Miller, Arthur I. 1981. Albert Einstein's Special Theory of Relativity: Emergence (1905) and Early Interpretation (1905-1911). Reading: Addison-Wesley Publishing Company, Inc.Google Scholar
Miyoshi, Nobuhiro. 1989. Daiā no Nihon [Dyer's Japan]. Tokyo: Fukumura Shuppan.Google Scholar
Miyoshi, Nobuhiro. 2012. Nihon kōgyō kyōiku seiritsushi no kenkyū; [A study on origins of engineering education in Japan]. Enlarged. Tokyo: Kazama Shobō.Google Scholar
Mizuno, Toshinojō. 1904. Dempa to musen denshin [Radio waves and wireless telegraphy]. Tokyo: Maruzen.Google Scholar
Mizuno, Toshinojō. 1911. Musen denshin denwa ron [A treatise on wireless telegraphy and wireless telephony]. Tokyo: Maruzen.Google Scholar
Mizuno, Toshinojō. 1912. Denshiron [The electron theory]. Tokyo: Maruzen.Google Scholar
Mizuno, Toshinojō. 1918. Denshi no katsudō [Activities of the electron]. Tokyo: Maruzen.Google Scholar
Muramatsu, Hiroshi. 2016. “Meiji shoki ni okeru ‘kenkyū’ gainen no hen'yō to ‘kenkyūjo’ no seiritsu katei [Changes in meaning of the term kenkyū and the establishment of kenkyū-sho in the Early Meiji Period].” Gijutsu to bunmei 20 (1):119.Google Scholar
Nagakura, Saburō, ed. 1964. Denshiron no kiso to ōyō; [Foundation and application of electron theory]. Tokyo: Iwanami Shoten.Google Scholar
Nagaoka, Hantarō. 1904. “Motion of Particles in an Ideal Atom Illustrating the Line and Band Spectra and the Phenomena of Radioactivity.” Tokyo Sugaku-Butsurigakukwai Hōkoku 2 (7):92107.Google Scholar
Nagaoka, Hantarō. 1905a. “Dispersion of Light Due to Electron-Atoms.” Tokyo Sugaku-Butsurigakukwai kiji-gaiyō; 2 (18):280–85.Google Scholar
Nagaoka, Hantarō. 1905b. “Mutual Action of Electron Atoms.” Tokyo Sugaku-Butsurigakukwai kiji-gaiyō; 2 (21):316–20.Google Scholar
Nagaoka, Hantarō. 1905c. “Virial of Molecular Forces Due to Electron Atoms, the Characteristic Equation and the Joule-Kelvin Effect.” Tokyo Sugaku-Butsurigakukwai kiji-gaiyō; 2 (21):335–40.Google Scholar
Nagaoka, Hantarō. 1906. Rajiumu to denki busshitsukan [Radium and electrical views of matter]. Tokyo: Dainippontosho.Google Scholar
Nagaoka, Hantarō. 1909. “The Inductance Coefficients of Solenoids.” Journal of the College of Science, Imperial University of Tokyo, Japan 27:132.Google Scholar
Nagaoka, Hantarō. 1912. Genkon no denkigaku [Today's studies of electricity]. Tokyo: Kōdōkan.Google Scholar
Nagaoka, Hantarō. 1922. “Sōtaisei genri no kōgai [An outline of the theory of relativity].” Denkigakkai zasshi 42 (410):635–52.Google Scholar
Nagaoka, Hantarō. 1924. “Ryōshiron no gaiyō [An outline of quantum theory].” Denkigakkai zasshi 44 (436):1015–28.Google Scholar
Nagaoka, Masao. 1968. “On'yō naru bishō [Kindly Smile].” In Tsukiai, edited by Tanikawa, Yasutaka, 211–16. Tokyo: Kondansha.Google Scholar
Nakane, Ryōhei, Nishina, Yūichirō, Nishina, Kōjirō, Yasaki, Yūji, and Ezawa, Hiroshi, eds. 2007. Nishina Yoshio ōfuku shokanshu [Nishina Yoshio collected correspondence]. Vol. 3. Tokyo: Misuzu Shobō.Google Scholar
Nakano, Hatsune. 1911. “Kaichō enzetsu [Presidential Address].” Denkigakkai zasshi 31 (276):611–18.Google Scholar
Nishikawa Sensei Kinenkai, ed. 1982. Nishikawa Shōji sensei hito to gyōseki [Professor Nishikawa Shōji: His life and achievements]. Tokyo: Nishikawa Sensei Kinenkai.Google Scholar
Nishimura, Jun. 2010. “Myūon no hakken [Discovery of the muon].” Nishina Memorial Foundation. http://www.nishina-mf.or.jp/nkz_series/NKZ_52.pdf (last accessed March 15, 2018).Google Scholar
Nishimura, Jun. 2012. “Wagakuni ni okeru uchūsen kenkyū no hajimari [The beginning of cosmic ray research in Japan].” Butsuri 67 (12):816–21.Google Scholar
Nishina, Akira. 1975. “Nishina Yoshio hakase no omoide [Memories of Dr. Nishina Yoshio].” Takahashigawa 32:419.Google Scholar
Nishina, Yoshio. 1929. “Ryōshiron to ingaritsu ni tsuite: Fu Bohr kenkyūjo no hanashi [On quatnum theory and causality: The story of the Niels Bohr Institute].” Denkigakkai zasshi 49 (497): 1331–45.Google Scholar
Nishina, Yoshio, Takeuchi, Masa, and Ichimiya, Torao. 1937. “On the Nature of Cosmic-Ray Particles.” Physical Review 52:1198–99.Google Scholar
Nishina, Yoshio, and Tomonaga, Sin-itiro. 1934. “On the Negative-Energy Electrons.” Japanese Journal of Physics 9:3540.Google Scholar
Nishina, Yoshio, Tomonaga, Sin-itiro, and Kobayasi, Minoru. 1935. “On the Creation of Positive and Negative Electrons by Heavy Charged Particles.” Scientific Papers of the Institute of Physical and Chemical Research 27:137–77.Google Scholar
Nishina, Yoshio, Tomonaga, Sin-itiro, and Sakata, Shōichi. 1934. “On the Photo-Electric Creation of Positive and Negative Electrons.” Research, Supplement to Scientific Papers of the Institute of Physical and Chemical Research 17:15.Google Scholar
Nishina, Yoshio, Tomonaga, Sin-itiro, and Tamaki, Hidehiko. 1934. “On the Annihilation of Electrons and Positrons.” Supplement to Scienific Papers of the Institute of Physical and Chemical Research 18:712.Google Scholar
Nisio, Sigeko. 1979. “The Transmission of Einstein's Work to Japan.” Japanese Studies in the History of Science 18:18.Google Scholar
Nisio, Sigeko. 2011. Kagaku jānarizumu no senkusha: Hyōden Ishiwara Jun [A pioneer of science journalism: A biography of Ishiwara Jun]. Tokyo: Iwanami Shoten.Google Scholar
Ogawa, Wakasaburō. 1928. “Kempayō hōenkō no kagakuteki kenkyū (Dai 8-hō): Kōseki kempaki no riron [Chemical studies of galena detector, 8th communication: The theory of the crystal detector].” Kōgyōkagaku zasshi 31 (8):717–23.Google Scholar
Ohno, Tetsuya. 2008. “Nichirosensō shoki no musendenshin riyō jōkyō [The use of wireless telegraph by the Japanese navy at the early stage of the Russo-Japanese War].” Jōhōka shakai media kenkyū; 5:920.Google Scholar
Okamoto, Tadasu. 1921. “Denko yōsetsu ni tsuite [On arc welding].” Denkigakkai zasshi 41 (391):109–36.Google Scholar
Okamoto, Takuji. 2014. Kagaku to shakai: Senzenki Nihon ni okeru kokka gakumon sensō no shosō [Science and society: Some aspects of the state, learning, and war in prewar Japan]. Tokyo: Saiensusha.Google Scholar
Ōkōchi Kinenkai, ed. 1954. Ōkōchi Masatoshi, hito to sono jigyō; [Ōkōchi Masatoshi, his personality and work]. Tokyo: Nikkan Kōgyō Shimbun.Google Scholar
Ōkurashō, ed. 1889. Kōbushō enkaku hōkoku [A report on the history of the Ministry of Industry]. Tokyo: Ōkurashō.Google Scholar
Park, Buhm Soon. 2009. “Between Accuracy and Manageability: Computational Imperatives in Quantum Chemistry.” Historical Studies in the Natural Sciences 39 (1):3262.Google Scholar
Rikagakukenkyūsho. 1919. Rikagaku Kenkyūsho jigyōhōkokusho dai-3-kai [Business report of RIKEN, No. 3]. Tokyo: Rikagakukenkyūsho.Google Scholar
Roden, Donald T. 1980. Schooldays in Imperial Japan: A Study in the Culture of a Student Elite. Berkeley: University of California Press.Google Scholar
Rohrlich, Fritz. 2007. Classical Charged Particles. Singapore: World Scientific.Google Scholar
Rosa, Edward B., and Grover, Frederick W.. 1912. “Formulas and Tables for the Calculation of Mutual and Self-Inductance.” Bulletin of the Bureau of Standards 8:1287.Google Scholar
Sadachi, Takeo. 1917. “Shinkūkyū ni yoru denkishindō no hassei ni tsuite [Generation of electric oscillation in a vacuum bulb].” Denkigakkai zasshi 37 (349):643702.Google Scholar
Saegusa, Hikoo. 1920. “Yūdentai no hyōmen ni okeru hibana hōden ni kansuru kenkyū [A study on the spark discharge on the surface of a dielectric].” Denkigakkai zasshi 40 (378):368.Google Scholar
Saegusa, Hikoo. 1924. “On the Variation of Residual Charge and the Ratio of Electrical conductivity to Capacity due to Temperature.” Denkigakkai zasshi 44 (432):651–78.Google Scholar
Saegusa, Hikoo. 1926. “A Thermionic Theory of the Electrical Conductivity Dielectrics [in Japanese].” Denkigakkai zasshi 45 (460):1284–91.Google Scholar
Saegusa, Hikoo. 1928. Denshiron [Theory of the electron]. Tokyo: Uchidarōkakuho.Google Scholar
Saegusa, Hikoo. 1931. Shin denshiron [A new theory of the electron]. Tokyo: Uchidarōkakuho.Google Scholar
Saito, Satoshi. 1987. Shinkō kontsuerun RIKEN no kenkyū: Ōkōchi Masatoshi to RIKEN sangyōdan [A study on the emerging concern RIKEN: Ōkōchi Masatoshi and the RIKEN industrial group]. Tokyo: Jichōsha.Google Scholar
Sakurai, Jōji. 1940. Omoide no kazukazu [Various memories]. Tokyo: Kyūwakai.Google Scholar
Sano, Shzuwo. 1907. “Theory of Thermoelectricity.” Tokyo Sugaku-Buturigakkwai Kizi 4 (1):226.Google Scholar
Sawai, Minoru. 2012. Kindai Nihon no kenkyū kaihatsu taisei [The research and development system in modern Japan]. Nagoya: University of Nagoya Press.Google Scholar
Sayes, Edwin. 2014. “Actor-Network Theory and Methodology: Just What Does It Mean to Say that Nonhumans Have Agency?Social Studies of Science 44 (1):134–49.Google Scholar
Shiba, Ryōtarō. 2013. Clouds above the Hill: A Historical Novel of the Russo-Japanese War, 4 vols. London and New York: Routledge.Google Scholar
Shiba, Tetsuo. 1983. “Shiomi Rikagaku Kenkyūjo shōshi [A short history of the Shiomi Research Institute of Physics and Chemistry].” Osaka Daigakushi kiyō; 3:3143.Google Scholar
Shimizu, Takeo. 1922. “A Reciprocating Expansion Apparatus for Detecting Ionising Rays.” Proceedings of the Royal Society of London A: Mathematical, Physical and Engineering Sciences 102:294318.Google Scholar
Shimizu, Takeo. 1928. “Denshiron no hensen [On the history and recent advancement of electron theory].” Denkigakkai zasshi 48 (480):691–99.Google Scholar
Staley, Richard. 2008. Einstein's Generation: The Origins of the Relativity Revolution. Chicago: University of Chicago Press.Google Scholar
Sugiura, Yoshikatsu. 1927. “Über die Eigenschaften des Wasserstoffmoleküls im Grundzustande.” Zeitschrift für Physik 45 (7–8):484–92.Google Scholar
Sugiura, Yoshikatsu. 1937. Denshi butsurigaku [Electron physics]. 2 vols. Tokyo: Kyōritsusha.Google Scholar
Suzuki, Jun. 2013. Shin gijutsu no shakaishi [Social history of new technology]. Tokyo: Chūōkōronsha.Google Scholar
Takeuchi, Masa. 1991. “Kiribako ni yoru uchūsen no kenkyū [Cosmic ray research with cloud chambers].” In Nishina Yoshio: Nihon no genshikagaku no akebono, edited by Tamaki, Hidehiko and Ezawa, Hiroshi, 104–18. Tokyo: Misuzu Shobō.Google Scholar
Tanaka, Setsuko. 1995. “Kuwaki Ayao to Nihon no butsurigaku: Sōtaisei riron o jiku to shite [Kuwaki Ayao and physics in Japan].” In Nihon no butsurigakusha, edited by Tetsuo Tsuji, 3154. Hadano: Tōkaidaigaku Shuppankai.Google Scholar
Tokyo Teikoku Daigaku. 1907. Tokyo Teikoku Daigaku ichiran: Meiji 39-nen-40-nen [The catalogue of Tokyo Imperial University: From Meiji 39 to 40]. Tokyo: TokyoTeikoku Daigaku.Google Scholar
Torikata, Wichi. 1908. Musen denshin jushin'yō kōseki kempaki [Crystal detector for wireless telegraphy]. Japan Patent 15345, filed on August 12, 1908, issued 1908.Google Scholar
Torikata, Wichi. 1914. “‘T-Y-K’: System of Radio Telegraphy and Radio Telephony.” Denkigakkai zasshi 34 (sup):195314.Google Scholar
Torikata, Wichi. 1915. “Isewan musen denwa ni tsuite [Wireless telephony in the Ise Bay].” Denkigakkai zasshi 35 (319):139–48.Google Scholar
Torikata, Wichi, Yokoyama, Eitarō, and Kitamura, Masajirō. 1912a. “TYK-shiki shindō denryū hōden kangeki [The TYK type discharge gap for oscillating currents].” Denkigakkai zasshi 32 (288):749–64.Google Scholar
Torikata, Wichi, Yokoyama, Eitarō, and Kitamura, Masajirōa. 1912b. Shindō hōden kangeki [Oscillating discharge gap]. Japan Patent 22347, filed on March 28, 1912, issued 1912.Google Scholar
Uemura, Shoji. 2014. “Shirabasu o tōshitemita Kōbu Daigakkō no rigaku kyōiku [Natural philosophy education as seen through the syllabus in the Imperial College of Engineering].” Shakai kagaku 43 (4):109–47.Google Scholar
Vizgin, Vladimir P. 1994. Unified Field Theories in the First Third of the 20th Century. Reprint. Basel: Birkhäuser Verlag.Google Scholar
Wakai, Noboru, and Takahashi, Yūzō. 1994. Terekomu no yoake: Reimeiki no hompō denki tsūshin shi [The dawn of telecommunication: The early history of electric communication in Japan]. Tokyo: Denki Tsūshin Shinkōkai.Google Scholar
Wolff, David, ed. 2006. The Russo-Japanese War in Global Perspective. Leiden: Brill.Google Scholar
Yagi, Eri. 1959. “Nihon saisho no butsurigakusha tachi: Meiji shoki no butsurigaku no jōtai [The first Japanese physicists: The state of physics in the early Meiji era].” Butsurigakushi kenkyū 1 (3):237–62.Google Scholar
Yagi, Eri. 1964. “On Nagaoka's Saturnian Atomic Model(1903).” Japanese Studies in the History of Science 3:2947.Google Scholar
Yagi, Eri. 1972. “Development of Nagaoka's Atomic Model (1904-05).” Japanese Studies in the History of Science 11:7389.Google Scholar
Yagi, Hidetsugu. 1923. “Lightning arrester from a certain point of view (in Japanese).” Denkigakkai zasshi, 270–99.Google Scholar
Yamada, Kōgorō. 1969. “Nagaoka Hantarō hakase to Nihon ni okeru kōgaku kōgyō no bokkō [Dr. Nagaoka Hantarō and the emergence of optical industry in Japan].” Butsurigakushi kenkyū; 5 (1):2942.Google Scholar
Yamamoto, Tadaoki. 1929. “Kaichō enzetsu [Inaugural address].” Denkigakkai zasshi 49 (488):2124.Google Scholar
Yang, Daqing. 2010. Technology of Empire: Telecommunications and Japanese Expansion in Asia, 1883–1945. Cambridge: Harvard University Press.Google Scholar
Yazaki, Yuji. 2017. “How the Klein-Nishina Formula Was Derived: Based on the Sangokan Nishina Source Materials.” Proceedings of the Japan Academy, Series B 93 (6): 399421.Google Scholar
Yoshida, Akihiko. 1981. “Nihonkai kaisen ni okeru tsūshin [Telecommunication at the Battle of Tsushima].” Gunjishigaku 17 (1):5563.Google Scholar
Yoshida, Seiko, and Takata, Seiji. 1992. “Hansōtanronja Doi Uzumi to Taisho Butsurikagakukai [Anti-relativity physicist: Doi Uzumi and the Japanese physics community in the Taisho era].” Kagakushi kenkyū 31:1926.Google Scholar