Two important periods in the history of mechanochemistry
Source abstract
Abstract
Some form of mechanochemical experience has existed from fine grinding of materials since prehistoric times, yet the first systematic investigations on the chemical effects of mechanical action were carried out only at the end of the nineteenth century. Walthere Spring studied the consolidation and reactions of powdered materials due to high pressure at the University of Liege, in order to understand the formation of minerals in the earth’s crust and M. Carey Lea carried out experiments on the decomposition of compounds by grinding in a mortar. In some of his experiments mechanical action produced distinctly different result from the effect of heat. The first part of this paper compares the circumstances and results of Spring and Lea. The other important period in the history of mechanochemistry was the 1960s, the time when the first dedicated conferences were organized and a broader community of mechanochemists formed. This happened in the Soviet Union and Eastern Europe where several groups were working on subjects related to mechanochemistry. In 1968, the first dedicated conference was organized as a special session of the yearly meeting of Soviet colloid chemists. An attempt is made to reconstruct the circumstances leading to that event and the roles played by Rebinder and Thiessen in bringing it together. The next conference on mechanochemistry was already a separate event and it started a yearly series. Extensions have led to the INCOME conferences, including this one in Kosice in 2017.
Source: openaire · Quality: candidate unverified · Source record ↗
Research context
OpenAlex topics: Building materials and conservation · Cultural Heritage Materials Analysis · Mineralogy and Gemology Studies
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References (30)
Show source-provided references
1. Boldyrev VV, Tkáčová K (2000) Mechanochemistry of solids: past, present, and prospects. J Mater Synth Process 8:121–13210.1023/A:1011347706721 ↗
2. Takacs L (2013) The historical development of mechanochemistry. Chem Soc Rev 42:7649–765910.1039/c2cs35442j ↗
3. Crismer L (1912) Walthère Spring, sa vie et son oeuvre. Bull Soc Chim Belg 26:41–69
4. Takacs L (2004) M. Carey Lea, the first mechanochemist. J Mater Sci 39:4987–4993. https://doi.org/10.1023/B:JMSC.0000039175.73904.9310.1023/B:JMSC.0000039175.73904.93 ↗
5. Turkevich J (1965) Chemistry in the Soviet Union. D van Nostrand Company, Toronto
6. Taubman AB (1971) P. A. Rebinder, Materialy k bio-bibliografii uchenykh SSSR: Ser. khimicheskikh nauk, vol 45, 2nd edn. AN SSSR, Moscow (in Russian)
7. Takacs L (2003) M. Carey Lea, the father of mechanochemistry. Bull Hist Chem 28:26–3410.70359/bhc2003v028p026 ↗
8. Takacs L (2018) Spring contra Lea: rivals of early mechanochemistry. Bull Hist Chem (in press)
9. Lea MC (1841) On the first or southern coal field of Pennsylvania. Am J Sci 1st Ser 40:370–375
10. Lea HC (1841) Upon an examination of the peroxide of manganese. Am J Sci 1st Ser 42:81–87
11. Barker GF (1905) Biographical memoir of Matthew Carey Lea, 1823–1897. Nat Acad Sci 5:155–208
12. Lea MC (1868) A manual of photography: intended as a text book for beginners and a book of reference for advanced photographers. Benerman and Wilson, Philadelphia
13. Spring W (1880) Recherches sur la propriété que possèdent les corps solides de se souder par l’action de la pression. Bull Acad R Belg 49:323–379
14. Lea MC (1889) On allotropic forms of silver. Am J Sci 3rd Ser 37:476–49110.2475/ajs.s3-37.222.476 ↗
15. Lea MC (1891) on allotropic silver, part II: relations of allotropic silver with silver as it exists in silver compounds. Am J Sci 3rd Ser 41:259–26710.2475/ajs.s3-41.244.259 ↗
16. Lea MC (1892) Disruption of the silver haloid molecule by mechanical force. Am J Sci 3rd Ser 43:527–53110.2475/ajs.s3-43.258.527 ↗
17. Lea MC (1893) On endothermic reactions effected by mechanical force. Am J Sci 3rd Ser 46:241–24410.2475/ajs.s3-46.274.241 ↗
18. Lea MC (1893) On Endothermic decompositions obtained by pressure. Second part. Transformations of energy by shearing stress. Am J Sci 3rd Ser 46:413–42010.2475/ajs.s3-46.276.413 ↗
19. Lea MC (1894) Transformations of mechanical into chemical energy. Third paper. Action of shearing-stress continued. Am J Sci 3rd Ser 47:377–38210.2475/ajs.s3-47.281.377 ↗
20. Spring W (1878) Note préliminaire sur la propriété que possèdent les fragments des corps solides de se souder par l’action de la pression. Bull Acad R Belg 2nd Ser 55:41–47
21. Spring W (1883) Bildung von Arseniden durch Druck. Ber Dtsch Chem Ges 16:324–32610.1002/cber.18830160175 ↗
22. Spring W (1883) Bildung von Sulfiden durch Druck; Betrachtungen über die chemische Natur des rothen Phosphors und des amorphen Kohlenstoffs. Ber Dtsch Chem Ges 16:999–100410.1002/cber.188301601223 ↗
23. Spring W (1888) The compression of powdered solids: a note. Am J Sci 3rd Ser 36:214–217
24. Johnston J, Adams LH (1913) On the effect of high pressure on the physical and chemical behavior of solids. Am J Sci 4th Ser 35:205–25310.2475/ajs.s4-35.207.205 ↗
25. Turkevich J (1963) Soviet men of science. Greenwood Press, Westport, pp 311–313
26. Eibl C (1999) Der Physikochemiker Peter Adolf Thiessen als Wissenschaftsorganizator (1899–1990) eine biographische Studie, Ph.D. Thesis, Historisches Institute der Universität Stuttgart
27. Beneke K (2000) Die Kolloidwissenschaftler Peter Adolf Thiessen, Gerhart Jander, Robert Havemann, Hans Witzmann und ihre Zeit. Reinhard Knof, Nehmten
28. Thiessen PA, Meyer K, Heinicke G (1967) Grundlagen der Tribochemie. Akademie Verlag, Berlin10.1515/9783112649022 ↗
29. Mechanoemission and mechanochemistry of solids, Frunze, 1969, Book of abstracts. Kyrgyz Acad Sci, Frunze (Published in 1974)
30. Boldyrev VV (2018) Mechanochemistry in Siberia. Vestnik Rossijskoj Akad Nauk 88:69–78