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  • Dmitri Mendeleev

    Published by Bollati Boringhieri, 1992

    ISBN 10: 8833906809 ISBN 13: 9788833906805

    Seller: libreriauniversitaria.it, Occhiobello, RO, Italy

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  • Dmitri Ivanovich Mendeleev

    Published by Dover Publications, 2005

    ISBN 10: 0486445712 ISBN 13: 9780486445717

    Seller: GoldBooks, Denver, CO, U.S.A.

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    Paperback. Condition: very good. Very Good Copy. Customer Service Guaranteed.


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  • Mendeleev, Dmitri

    Published by Macmillan & Co., London, 1895

    Seller: JF Ptak Science Books, Hendersonville, NC, U.S.A.

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    Soft cover. Condition: Good. [MENELEEV, Dmitri] "Professor Mendeleeff on Argon". In: NATURE, April 4, 1895, volume 51 #1327, page 543 in the weekly issue of pp 529-552. Includes the original wrapper. The whole weekly issue has been detached from a larger bound volume; the issue is intact, with a working spine, though the wrappers part of it are detached from the issue though together in themselves. Provenance: Smithsonian Astrophysical Observatory. Good copy. __+__ "In 1904, Lord Rayleigh (1842 1919) and his collaborator Sir William Ramsay (1852 1916) were awarded the Nobel Prize in physics and chemistry, respectively, primarily for their role in the discovery of argon, an inert gas in the atmosphere. The averse reaction to this discovery by Mendeleev (1834 1907) might have been the main reason for his not being awarded the Nobel prize in chemistry in 1906." The discovery of argon resulted from a careful unraveling of an empirical discrepancy, initially detected by Rayleigh when measuring the density of nitrogen gas produced by two different procedures. After a long trial-and-error process based on a carefully designed sequence of experiments and guided by an informal (by today s standards) analysis of the resulting data Rayleigh and Ramsay reached the conclusion that the atmospheric air contains argon, a hitherto unknown element."--"The Discovery of Argon: a Case of Learning from Data?", by Aris Spanos in Philosophy of Science,Vol. 77, No. 3, July 2010__+__ "Rayleigh and Ramsey  had noted that nitrogen obtained from the air had a density greater than that of nitrogen liberated from its compounds by about one-half percent. This led to the isolation of the first of the inert gases which they called argon. In the following year Ramsay found another, helium, in the mineral clevite, altho this had been noted in the sun s spectrum by Lockyar  in 1868. In four years, 1894-8, five new gases, including neon, krypton and xenon had been discovered. These form a distinct group in the periodic table; all have zero valency. [Dibner]. Dibner, Heralds of Science 50.__+__ Mendeleev was famously circumspect about the discovery of argon as it did not form a fit with the periodic table and briefly challenged its legitimacy; I short order though argon proved to be one of the most celebrated cases in proving its efficacy.

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    Soft cover. Condition: Good. MENDELEEV (MENNDELEEFF), Dmitri. "Sur la cohesion de quelques liquides et sur le role de la cohesion moleculaire dans les reactions chimiques des corps" in Comptes Rendus, Paris, Mallet-Bachelier, 1860, vol 51 no. 3, the issue of pp 73-108 with the Mendeleev on pp 97-99. Cleanly and neatly extracted from a larger bound volume, offered with the (detached) original wrappers. [++] An early paper by the 26-year-old Mendeleev, one of the first to appear in French. "In 18591860 Mendeleev worked at the University of Heidelberg, where he first collaborated with Bunsen, and then established his own laboratory. He studied capillary phenomena and the deviations of gases and vapors from the laws of perfect gases. In 1860, he discovered the phenomenon of critical temperaturethe temperature at which a gas or vapor may be liquefied by the application of pressure alonewhich he called the "absolute temperature of boiling." He was thereby led to consider once again the relationship between the physical and chemical properties of particles and their mass. He was convinced that the force of chemical affinity was identical to the force of cohesion; he looked upon his work, then, as falling within the realm of physical chemistry, the ground upon which chemistry, physics, and mathematics met."--Complete DSB online.

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    Soft cover. Condition: Good. MENDELEEV, Dmitri (MENDELEYEV, MENDELEEFF) & N. KAIANDER. "Du coefficient de dilatation de l'air sous la pression atmosphérique. Note." in "Comptes Rendus des Séances de L'Academie des Sciences". Paris, Gauthier-Villars, 1876. 4to. No wrappers. In: "Comptes Rendus Hebdomadaires des Séances de L'Academie des Sciences", vol 82, no 8. pp. 429-467. Mendeleev and Kaiander's paper on pp. 450-454this is a pre-periodic table Mendeleev, concentrating as he was in this period (and in this paper) with aeronautical sciences. Extracted from a larger bound volume. Crisp copy.

  • 1st Edition. FIRST EDITION OF THE FIRST OF MENDELEEV'S PREDICTED ELEMENTS TO BE IDENTIFIED, thereby confirming "the validity of the periodic system of elements" Mendeleev had designed (Niaz, Critical Appraisal of Physical Science, 62). "The confirmation of this prediction may certainly be called the culminating point in the history of the periodic system" (ibid). In 1869 "Mendeleev published a periodic table. Mendeleev also arranged the elements known at the time in order ofrelative atomic mass, but he did some other things that made his table much more successful. He realised that the physical and chemical properties of elements were related to their atomic mass in a 'periodic' way, and arranged them so that groups of elements with similar properties fell into vertical columns in his table. "Sometimes this method of arranging elements meant there were gaps in his horizontal rows or 'periods'. But instead of seeing this as a problem, Mendeleev thought it simply meant that the elements which belonged in the gaps had not yet been discovered. He was also able to work out the atomic mass of the missing elements, and so predict their properties. And when theywerediscovered, Mendeleev turned out to be right. "The discovery of the three elements predicted by Mendeleev was of decisive importance in the acceptance of his law. In 1875 Lecoq de Boisbaudran, knowing nothing of Mendeleev's work, discovered by spectroscopic methods a new metal, which he named gallium. Both in the nature of its discovery and in a number of its properties gallium coincided with Mendeleev's prediction for eka-aluminum, but its specific weight at first seemed to be less than predicted. "Although Lecoq de Boisbaudran objected to this interpretation, he made a second determination of the specific weight of gallium and confirmed that such was indeed the case. From that moment the periodic law was no longer a mere hypothesis, and the scientific world was astounded to note that Mendeleev, the theorist, had seen the properties of a new element more clearly than the chemist who had empirically discovered it. From this time, too, Mendeleev's work came to be more widely known" (Dictionary of Scientific Biography). CONDITION & DETAILS: Complete volume. Ex-libris bearing only a deaccessioned stamp on the back of the title page and slight ghosting at the spine where a spine level has been removed. 4to (11 x 8 inches; 275 x 200mm). [6], 1450, [2]. Bound in clean full blue cloth, gilt-lettered at the spine. Solidly and tightly bound. Very occasional toning, otherwise clean and bright throughout.

  • Seller image for O soprotivlenij schidkostey i o vuzduchoplavani [Kyrillisch]. [On the Resistance of Liquids and Air flying / About Liquids Resistance and Aeronautics]. for sale by Matthaeus Truppe Antiquariat

    1 Bl., 160, 80 S. 12 mehtrfach gefalt. lithograph. Tafeln. Erste Ausgabe dieses seltenen Klassikers der Luftfahrtsgeschichte welches die Grundlage für die frühe russische Luftfahrt bildet und auch den Wegbereiter der russischen Raumfahrt Konstantin Tsiolkovsky beeinflusste. - "A large contribution to the development of aviation was made by D.I. Mendeleev, who conceived of a stratospheric balloon and devised plans for its construction in 1875. The first foreigner to construct a stratospheric balloon was Picard in 1931. In 1887, Mendeleev ascended 3,350 meters in the balloon to observe a solar eclipse. Mendeleev defined the future significance of aviation with great foresight. His "On the Resistance of Liquids and Aeronautics" (1880) served as one of the fundamental guides for work in shipbuilding, aeronautics, airplane construction, and ballistics" (Geldern & Stites: Mass Culture in Soviet Russia, p. 480). - Durchgehend etw. gebräunt, stellenw. etw. fleckig. *** *** Copyright: Matthaeus TRUPPE Buchhandlung & Antiquariat - Stubenberggasse 7 - A-8010 Graz - ++43 (0)316 - 829552 *** *** Sprache: Deutsch Gewicht in Gramm: 0 Gr.-8°. Mod. Lwd. mit eingebundenem OU (vorderer Deckel mit Eckabriss, hinterer Deckel gestempelt mit Randläsuren und hs. Notizen).

  • Seller image for "Versuch eines Systems der Elemente nach ihren Atomgewichten und chemischen Functionen" (An experiment on a system of elements based on their atomic weights and chemical similarities) in "Journal fur Praktische Chemie." for sale by JF Ptak Science Books

    Hardcover. Condition: Fine. MENDELEEV, Dmitri Ivanovich. "Versuch eines Systems der Elemente nach ihren Atomgewichten und chemischen Functionen" (An experiment on a system of elements based on their atomic weights and chemical similarities) in "Journal fur Praktische Chemie", Leipzig, Barth, 1868-1869, volume 105 and 106 bound together; xi,520;xi,508pp (1 plate). Newly rebound in leather-backed marbled boards, with new endpapers. The work is very stout and sturdy, and the binder has also done an excellent job in "antiquing" the volume so that it doesn't look perfectly new, though it certainly is. There are a few ownership stamps on the title page. Lovely copy. [++] "Mendeleev, first of all, is the undisputed champion of the periodic system.although he was not the first to develop a periodic system, his version is the one that created the biggest impact.his name is invariably and justifiably connected with the periodic system.as Darwin's name is synonymous with the theory of evolution and Einstein's with the theory of relativity."--Eric Scerri, The Periodic Table, its Story and Significance, Oxford 2007, p 101. [++] "Mendeleev's mature periodic system first appeared in print in 1869 in the Russian [in the "Zhurnal Russkogo Khimicheskogo Obshchestva" 1, no. 2-3 (1869), 35, 60-77] chemical literature, and a German abstract [the paper offered here] of the article appeared in the same year."--Eric Scerri, pg. 144. [++] This paper the first in a trio of papers that appeared in 1869--is almost not even an abstract, sharing about half the page with two other papers, though it does show the monumental thing, which are 66 elements arranged in columns by increasing atomic weight, and "noting recurring chemical properties across them".--Wikipedia (History of the Periodic Table). [++] Take notice of what would become famous predictions of Mendeleev for the expected atomic weights of yet-unknown elements, identified as question marks ("?=68 and "?=70") which would be gallium and germanium, to name two. (There are btw some slight differences between the Russian 1869 table and the German abstract of that paper later that same year. ALSO, the first English language translation of the Mendeleev tables appeared in "Science News" in 1871".

  • Seller image for Ueber die Beziehungen der Eigenschaften zu den Atomgewichten der Elemente ("On the Relationship Between the Properties and Atomic Weights of the Elements"), IN Zeitschrift für Chemie (1869); WITH: Die Periodische Gesetzmässigkeit der Chemischen Elemente ("The Periodic Law of the Chemical Elements"), IN Annalen der Chemie und Pharmacie (1871) for sale by Manhattan Rare Book Company, ABAA, ILAB

    Original wrappers. Condition: Very Good. First edition. INTRODUCING THE PERIODIC TABLE TO THE WESTERN WORLD: FIRST EDITIONS OF TWO KEY PAPERS RELATING TO MENDELEEV'S DISCOVERY OF THE PERIODIC LAW-ONE OF THE MOST IMPORTANT DISCOVERIES IN MODERN CHEMISTRY. One of the most consequential scientific discoveries of the last 150 years was Dmitri Mendeleev's realization that if the chemical elements were listed in a natural order (originally by atomic weight, and later by atomic number), then the list could be broken down into rows and displayed in the form of a table in which the elements within each column of the table had similar chemical properties. The resulting tabular display of the elements is now known as the periodic table. Mendeleev explained the ability to construct such tables in terms of a general principle that chemical properties change periodically as one moves along the ordered list of elements. This insight had an important immediate consequence: it facilitated the identification of gaps in the list of known elements, and enabled chemists to predict the properties of the elements that would later be discovered to fill those gaps. Even more importantly, periodicity stimulated other theoretical advances. As E.R. Scerri notes: "Whenever scientists are presented with a useful pattern or system of classification, it is only a matter of time before they begin to ask whether there may be some underlying explanation for the pattern. The periodic system is no exception." (The Periodic Table, p. xix). Thus, the periodicity of element's chemical properties found a natural explanation in Bohr's 1913 proposal of a "quantum" model of the atom in which electrons were arranged in concentric "shells," each with a characteristic fixed size. As atomic number increased, so did the number of electrons in an atom. The additional electrons were added to the outermost shell one-by-one until it was full, and then they began occupying a new outer shell. The atoms of chemically similar elements were postulated to have the same number of electrons in their outer shells. In turn, that insight led to later developments in quantum theory-such as the Pauli exclusion principle and the spin-statistics theorem-which provided an explanatory framework for, and refined, Bohr's "shell" model. Like all prescient discoverers, Mendeleev stood on the shoulders of giants. The organization of the elements into groups with similar properties goes back to at least the eighteenth century, and some chemists had experimented in the 1860s with tabular arrangements of elements listed in order of increasing atomic weight (see Edward G. Mazurs, Graphic Representations of the Periodic System during One Hundred Years, ch. 1). Lothar Meyer, for example, drew a periodic table in 1868 but did not publish it. It was Mendeleev, however, who in 1869 announced the periodic law as the natural principle underlying such tables: "Mendeleev] is by far the leading discoverer of the [periodic] system. Although he was not the first to develop a periodic system, his version is the one that created the biggest impact on the scientific community at the time it was introduced and thereafter. His name is invariably and justifiably connected with the periodic system, to the same extent perhaps as Darwin's name is synonymous with the theory of evolution and Einstein's with the theory of relativity. "Although it may be possible to quibble about certain priority aspects of his contributions, there is no denying that Mendeleev was also the champion of the periodic system in the literal sense of propagating the system, defending its validity, and devoting time to its elaboration." (Scerri, The Periodic Table, p. 101). Mendeleev's discovery was initially announced in a paper read before the Russian Chemical Society in St. Petersburg in 1869, and published the same year in the Journal of the Russian Chemical Society (Zhurnal russkago khimicheskago obshchestva). However, it is the two works offered here that put the discovery before the eyes of chemists in western Europe and America. These works are: 1. An abstract, in German, of Mendeleev's 1869 paper. "The German abstract, which contains a version of the periodic table, was the first announcement of Mendeleev's discovery published in Western Europe." (The Haskell F. Norman Library of Science and Medicine, ed. Diana H. Hook and Jeremy M. Norman, 2 vols. (San Francisco: J. Norman, 1991), 1491). The original paper "was not translated from Russian until 1895 and consequently played little or no role in initially acquainting American, British and western European chemists with the periodic law. This role was played instead by two short German abstracts of the paper, one of which appeared in the Journal für praktische Chemie and the other in the Zeitschrift für Chemie {The latter is the one offered here.} [.] The first reproduced only Mendeleev's table, without any commentary or explanation [.] To the best of our knowledge, only the longer abstract in the Zeitschrift für Chemie had a significant impact, as it was the reading of this abstract that stimulated the German chemist, Lothar Meyer, to publish his own thoughts on the periodic law in late 1870 and which ultimately gave rise to a vigorous priority debate." (William B. Jensen, "Origins of the Period Law, 1869-1871", in Dmitri Ivanovich Mendeleev, Mendeleev on the Periodic Law: Selected Writings 1869-1905, ed. Jensen (Cincinnati: University of Cincinnati Press, 2002)). 2. The first complete and detailed presentation of the periodicity principle, and Mendeleev's first use of the term "periodic" to describe that principle. "It was in this article that Mendeleev spelled out his detailed predictions [of the properties of as-yet unknown elements] that, when later confirmed, were to make him famous." (Scerri, The Periodic Table, p. 112). Mendeleyev himself characterized this paper as "the best summary of my views and ideas on the periodicity of the elements and the original after which so much was written later about thi.

  • Seller image for Periodic Law or Periodic System, 1869-1889. A Collection of Most of Mendeleev's Important Papers Published in Journals (in Russian, German, and French). for sale by Scientia Books, ABAA ILAB

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    Hardcover. Condition: Good. 1st Edition. This collection was assembled under the guidance of William B. Jensen's book, Mendeleev on the Periodic Law. Selected Writings, 1869-1905 (2002). Jensen selected 11 papers by Mendeleev, published in journals from 1869-1899, and excerpts from two books, published in 1904-1905. The collection offered here contains papers 1-9 (1869-1889), 3 additional papers by Mendeleev (1869, 1871, 1895) that are cited by Jensen, as well as important, related publications by Lecoq de Boisbaudran (1875-1876) and by Lothar Meyer (1880, 1895). A FULL 9-PAGE DESCRIPTION OF THE WORKS IN THIS COLLECTION WILL BE SENT ON REQUEST. This full description contains detailed collation and condition information for each item, as well as a discussion of the historical importance of each item. IT IS ESSENTIAL TO READ THE FULL DESCRIPTION. The numbers 1-9 in this collection correspond to the numbers assigned by Jensen to Mendeleev's papers. I have assigned the numbers 1a, 2a, 3a to other papers by Mendeleev, and numbers 6a-6d and 8a to related papers by Lecoq de Boisbaudran and by Lothar Meyer. These are the papers by MENDELEEV in the collection: 1. MENDELEJEFF, D.: "Ueber die Beziehungen der Eigenschaften zu den Atomgewichten der Elemente." In: Zeitschrift für Chemie, Vol. 12 [Neue Folge V. Band], 1869, pp. 405-406. Entire journal volume offered. 1a. MENDELEEF, D.: "Versuche eines Systems der Elemente nach ihren Atomgewichten und chemischen Funktionen." In: Journal für praktische Chemie, vol. 106, 1869, p. 251. Entire journal volume offered. 2. (see photos 1-3) MENDELEEV, D.: "Sootnoshenie svoistv s atomnym vesom elementov." In: Zhurnal Russkoe Fiziko-Khimicheskoe Obshchestvo, Vol. 1, 1869, pp. 60-77. Entire journal volume offered. 2a. MENDELEJEFF, D.: Das natürliche System der chemischen Elemente. Abhandlungen von Lothar Meyer (1864-1869) und D. Mendelejeff (1869-1871). Herausgegeben von Karl Seubert. Ostwald's Klassiker der Exakten Wissenschaften, Nr. 68. Leipzig: Wilhelm Engelmann, 1895. 3. (see photos 4-5) MENDELEJEFF, D.: "Die periodische Gesetzmässigkeit der chemischen Elemente." (Aus dem Russischen von Felix Wreden). In: Annalen der Chemie und Pharmacie, Vol. VIII. Supplementband, 2. Heft, pp. 133-229, with 2 periodic tables on p. 149 & 151. Entire journal issue offered. 3a. MENDELEEV, D.: "Estestvennaia sistema elementov i primenenie ee k ukazaniiu svoistv neotkrytykh elementov." In: Zhurnal Russkoe Fiziko-Khimicheskoe Obshchestvo, Vol. 3, pp. 25-56 (table on p. 31). Entire journal volume offered. 4. MENDELEJEFF, D.: "Zur Frage über das System der Elemente." In: Berichte der Deutschen chemischen Gesellschaft zu Berlin, Vol. 4, 1871, pp. 348-352. Entire journal volume offered. 5. MENDELEJEFF, D.: "Ueber die Anwendbarkeit des periodischen Gesetzes bei den Ceritmetallen; eine Erwiderung." In: Annalen der Chemie und Pharmacie, Vol. 168, 1873, pp. 45-63. Entire journal volume offered. 6. MENDELEEFF, D.: "Remarque à propos de la découverte du gallium." In: Comptes rendus hebdomadaires des Séances de l'Academie des Sciences, vol. 81, no. 21 (22 Novembre 1875), pp. 969-72. Entire journal issue offered. 7. MENDELEEFF, D.: "La loi périodique des éléments chimiques." Extrait du Moniteur Scientifique-Quesneville, numéro de Juillet 1879. First Separate Edition. Paris: Typographie de Ves Renow, Maulde & Cock, 1879. 8. MENDELEJEFF, D.: "Zur Geschichte des periodischen Gesetzes." In: Berichte der Deutschen Chemischen Gesellschaft, Vol. 13, Juli-December, 1880, pp. 1796-1804. Entire journal volume offered. 9. MENDELEEV, D.: Dva Londonskikh tchtenia. Popytka prilogeniya k khimii odnogo iz natchal estestvennoy filosofii Newton'a i perioditcheskaya zakonnost' khimitcheskikh elementov [in Cyrillic]. Saint-Petersburg: 1889. First Edition in Russian. Item 9 in Jensen's book is the English translation ("The Periodic Law of the Chemical Elements"), which is not being offered in this collection.

  • Seller image for O kolebanii vesov. Rech' dlja obshhego sobranija X-ogo S'ezda Russkih Estestvoispytatelej v g. Kieve (avg. 1898g.). for sale by Antiquariat INLIBRIS Gilhofer Nfg. GmbH

    Folio. Autograph manuscript. 24 ff., some leaves written on both sides. Revised by the author throughout. Stored in custom-made blue half morocco solander case. The original manuscript of Mendeleev's speech on "The Oscillation of the Balance", delivered at the General Meeting of the 10th Congress of Russian Naturalists in Kiev (August 1898). In his annotated bibliography of his own works, self-compiled in 1899, Mendeleev writes: "Predmet schitaju ochen' vazhnym i interesnym" ("A subject I find very important and interesting"). After the end of his teaching career at the University of St. Petersburg in 1890, Mendeleev was variously employed by the government bureaucracy. From 1892 on he was "concerned in the regulation of the system of weights and measures in Russia, a task that he discharged 'with enthusiasm, since here the purely scientific was closely interwoven with the practical.' In 1893 he was named director of the newly created Central Board of Weights and Measures, a post which he held until his death, and in connection with which he frequently traveled abroad" (DSB IX, 292). - "The great importance of Mendeleev's work", write Kayak and Smirnova, "was that in his approach to the development of the theory of balances and methods of accurate weighing he took into account the physical essence of the phenomena investigated, whereas many investigators before and even after him attempted to solve all the problems on the basis of purely mechanical conceptions [.] Mendeleev's interest in balances as the most important instrument in physical and chemical investigations was manifested from the very beginning of his scientific work. Long before his move to the Depot of Standard Weights and Measures he devoted much attention to the perfection of balances, and methods of accurate weighing. In 1861 Mendeleev succeded in observing the oscillations of balances from a distance, thereby eliminating the influence of the heat radiated by the observer on the balance; he also proposed the use of a heat distributor made of copper for a balance beam. Mendeleev's most important work on the development of the theory of balances and methods of accurate weighing was made at the Principal Bureau of Weights and Measures, where he took upon himself the entire responsibility for organizing and equipping the weight laboratory" (p. 25). - Occasional insignificant edge defects, but altogether a very well preserved manuscript. Includes a copy of the published text. - Published: Sochineniya 7, pp. 577-591. Reference: Sochineniya 25, p. 752, no. 275. - Cf. L. K. Kayak and N. A. Smirnova, Theory of balances and accurate weighing in the investigations of Mendeleev and later developments, in: Izmeritel'naya Tekhnika 9 (Sept. 1969), pp. 25-28.