The Quest to Put the Elements in Their Places

Dating from the mid-1800s, the periodic table took decades to develop and was critical to atomic theory and quantum mechanics















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Editor’s note: The following, originally published with the title “Putting the Elements in Their Places,” is the introduction to the Scientific American Classics special digital edition, The Quest for the Periodic Table” (December 2012). This edition compiles articles from our archive and traces efforts to form the iconic table. See other special digital editions on our Classics page.

The periodic table of the elements is one of the most important developments in modern science, although it dates from the 1860s. In addition to unifying a huge variety of chemical and physical phenomena, it contributed significantly to the development of atomic physics and eventually to the theory of quantum mechanics.

These days the periodic table has become something of a cultural icon—a meme, if you will. Web sites have spawned “periodic tables” of anything and everything that can be classified, from fruits and vegetables to famous guitar players. YouTube videos alone featuring the periodic table number about 14,000, according to the quick search I made this past October. A Google search for the words “periodic table” results in almost 23 million hits, which incidentally is more hits than for “relativity theory” or “quantum mechanics.”

But how did the periodic table spread? How did it evolve? How was it announced to scientists and the general public? What better way to explore such questions than through the pages of the world’s most popular and longest-running science magazine—Scientific American. The current volume contains a unique collection of articles on the periodic table, elements and the surrounding scientific developments. Six scientists independently made the discovery, although not all of them regarded it as a law. They were scattered across the world, from the U.S. to Russia, but nobody took much notice initially. All that began to change when the predictions made by the last of the six discoverers, Russian chemist Dmitri Mendeleev, began to materialize.

The first mention of the periodic law in the magazine is an 1876 report from a French journal announcing the confirmation of one of Mendeleev’s predictions, the existence of a element that became known as gallium, and the hope that some of his other predictions might soon follow. Reports of the discoveries of other elements predicted by Mendeleev are reproduced here, as well as many articles trying to make sense of and improve on the periodic table.

But the path toward progress was not always a smooth one. In the 1890s a new unpredicted element, argon, was discovered—and it seemed to defy successful placement in the periodic table. Some scientists even believed that the periodic table had met its downfall. Here we read the initial and baffling accounts of the new element by its discoverers, along with other experts, in addition to articles on how to interpret the new finding. Soon, however, chemists found several other completely unreactive gaseous elements, and eventually “argon and its companions” found a place in the periodic system—they are the noble gases.

At the turn of the 20th century the field of physics began to invade the study of the periodic table thanks to the discovery of the electron, x-rays and radioactivity, among other phenomena. The few small blemishes that still remained in the periodic table, such as the need to reverse the elements tellurium and iodine, found a natural explanation in the discovery of atomic numbers and the occurrence of isotopes, both of which shape the characteristics of the nucleus. Here we read some articles by Frederick Soddy, one of the early pioneers in this study and the person who coined the term “isotope.”

All the articles adhere to the Scientific American tradition of being intelligible both to the educated public and to expert scientists. Given the growing popularity of the periodic table among laypersons and scholars alike, this collection could not have come at a better time.



ABOUT THE AUTHOR(S)

ERIC SCERRI is a lecturer in chemistry as well as history and philosophy of science at the University of California, Los Angeles. He is author of The Periodic Table: Its Story and Its Significance (Oxford University Press, 2007) and A Very Short Introduction to the Periodic Table (Oxford University Press, 2011).


6 Comments

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  1. 1. scerri 11:15 PM 1/10/13

    For educational as well as general interest resources on the periodic table and the elements please go to

    www.ericscerri.com/

    by the author of the above article.

    Reply | Report Abuse | Link to this
  2. 2. Wayne Williamson 03:41 PM 1/11/13

    wikipedia has several different ones...my favorite is the "Table of nuclides (complete)"

    Reply | Report Abuse | Link to this
  3. 3. scerri 04:16 PM 1/11/13


    The best sources on the variety of periodic tables are

    J. Van Spronsen's book of 1969, The Periodic System of Chemical Elements, Elsevier.

    Also E. Mazurs, Graphical Representations of the Periodic System, Alabama University Press, 1974.

    E. Scerri, A Very Short Introduction to the Periodic Table, OUP, 2011.

    also the website by Mark Leach,
    meta-synthesis.com/webbook/35_pt/pt_database.php

    www.ericscerri.com

    Reply | Report Abuse | Link to this
  4. 4. greenhome123 09:01 PM 1/11/13

    I am curious if the periodic table could be displayed in a 3 dimensional sphere, possibly with the Nobel gases and alkali metals going down the inside center.

    Reply | Report Abuse | Link to this
  5. 5. scerri 09:28 PM 1/11/13

    Have never seen it done that way. Please try to put one together and send me a photo.

    One very nice 3D periodic table was developed by Fernando Dufour from Montreal. An image of this happens to be in my Scientific American article for 1989 which just happens to be included in the above Scientific American Classic. Which article may even be why I got the gig to introduce this special issue.

    If you go to my website you will find a high quality one hour video of a lecture I gave in Montreal on the periodic table with Fernando in the audience. see the videos section of my website, www.ericscerri.com/

    I think that the logic conclusion of representing the period table would be concentric spheres with each one representing an element to reflect the notion of electron shells. It might just be difficult to execute this model but I assume somebody can come up with something.

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  6. 6. scerri 09:33 PM 1/11/13

    While I am on a roll, I have a new book appearing soon, called "A Tale of Seven Elements", from Oxford University Press. Here is the website for this book,

    http://www.amazon.com/Tale-Seven-Elements-Eric-Scerri/dp/0195391314/ref=sr_1_1?s=books&ie=UTF8&qid=1357957841&sr=1-1&keywords=a+tale+of+seven+elements

    The book is about the discovery of the last seven elements within the limits of the 'old periodic table' from elements 1-92. They are a bunch of exotic elements like Pa, Hf, Re, Tc, Fr, At, Pm. I describe the stories involved in all the claims and counter claims and controversies involved in the hunt for these elements some of which were eventually synthesized.

    Reply | Report Abuse | Link to this
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