Inspirational Molecules

Total Page:16

File Type:pdf, Size:1020Kb

Inspirational Molecules editorial Inspirational molecules Harry Kroto, buckminsterfullerene and an enduring legacy. Sir Harry Kroto, one of the discoverers Kroto was passionate about education and of C60, died on 30 April 2016 aged 76. public engagement — he was worried about An enthusiastic advocate for the what would be the ‘Meccano’ for the next importance of science, his discovery generation of scientists1. After he received of the spherical buckminsterfullerene the Nobel Prize he devoted a lot of time to stands as a landmark in the evolution these endeavours and was well known for his of nanotechnology. engaging lecture style. Kroto was born Harold Walter In 1995, Kroto founded the Vega Krotoschiner on 7 October 1939 in Wisbech, Science Trust3 and later the Global a small village in Cambridgeshire, and Educational Outreach for Science, grew up in Bolton. He read Chemistry at Engineering and Technology (GEOSET; the University of Sheffield, graduated in www.geoset.info), which created TV 1961 and completed a PhD in spectroscopy and online content about all aspects of at the same institution in 1964. After science. He understood the potential the postdoctoral positions at the National Internet offered for the democratization Research Council in Ottawa and Bell Labs in © ANNE PURKISS of broadcasting. In many respects, this the US, Kroto returned to the UK to take up web-based platform was ahead of its time, a position at Sussex University in 19661. the top of the paper. In 1996, the Nobel and was limited by connection speeds Initially, Kroto was interested in Prize in Chemistry was jointly awarded to in the 1990s. Although no longer active, the detection and characterization of Curl, Kroto and Smalley. In the same year these projects still contain a wealth of cyanoacetylene chains such as HC5N Kroto was knighted. Subsequently, Kroto resources for science education, including and HC7N, which had been found in was keen to highlight his most famous conversations with luminaries such as interstellar space. In 1985, Robert Curl discovery as a team effort: “I, Bob Curl Fred Sanger and Richard Feynman, scientific invited Kroto to Rice University where he and Rick Smalley got the Nobel Prize, and debates such as ‘Nanotechnology: The next met Richard Smalley, who had recently Jim Heath and Sean O’Brien got a bloody big thing’, and even a collaboration with developed his cluster beam apparatus. good meal at McDonald’s out of it.”3 The Manchester United to exploit the uncanny Kroto thought that if they used the structure was debated by many, including resemblance of C60 to a football. apparatus to produce a plasma from a group from Exxon, New Jersey, who had Although the practical applications of graphite, they could establish the role of seen evidence of C60 in 1984 but had not C60 have remained limited, its discovery carbon stars in the genesis of interstellar recognized its significance. Evidence for the changed our perception of the behaviour molecules. What they actually found was structure amassed but it was not explicitly of carbon and paved the way for work completely unexpected. The vaporization confirmed until 1990 by Krätschmer on carbon nanotubes and graphene. of graphite resulted in the formation of and colleagues4. Considering Kroto’s original motivations to several sphere-shaped molecules, and on Kroto’s first love was graphics, which understand the formation of molecules in noticing sharp peaks for clusters of 60 and he said was more important to him than outer space, it seems fitting that two recent 5 6 7 70 carbon atoms in the mass spectra, science . The discovery of 60C actually papers have now detected and confirmed the team optimized the procedure to led to him shelving his dream of working the astronomical role of C60. Kroto worked favour the formation of 60-atom clusters. as a graphic designer5. It seems almost on other nanoscience advances, but possibly Kroto, Smalley, Curl, Sean O’Brien and predestined that a scientist such as Kroto more important than his scientific legacy Jim Heath — or ‘the football team’, as Kroto would have a guiding hand in the discovery is the enduring inspirational impact of a called them — published their initial paper, of a molecule that resembles the geodesic molecule shaped like a football, an iconic simply titled ‘C60: Buckminsterfullerene’, in domes of Buckminster Fuller. As he image that he used to communicate his love Nature in 19852. describes in his Nobel Prize autobiography, of science to great effect. ❐ “we […] only really had the number [60] “I had the strong gut feeling to go on — and our intuition. I had the References strong gut feeling that it was so beautiful 1. Sir Harold Kroto — Biographical. Nobelprize.org; that it was so beautiful a a solution that it just had to be right.”5 http://go.nature.com/P51Tpf 2. Kroto, H. W., Heath, J. R., O’Brien, S. C., Curl, R. F. solution that it just had to When Kroto spoke of C60, he most often & Smalley, R. E. Nature 318, 162–163 (1985). referenced its beauty, quoting Russell, 3. A Round Peg In A Square Hole — 2002 Faraday Award Lecture; be right.” Wordsworth and Abelard and talking of http://go.nature.com/MBYYev 1 4. Krätschmer, W., Lamb, L. D., Fostiropoulos, K. & Huffman, D. R. its “stunningly beautiful delicate magenta” Nature 347, 354–358 (1990). Both Kroto and Smalley came up in solution. 5. Hargittai, I. Candid Science: Conversations with Famous Chemists with the same modelled structure, a As a child Kroto played with Meccano, (Imperial College Press, 2000). truncated icosahedron made up of which he credits with leading him on a 6. Cami, J., Bernard-Salas, J., Peeters, E. & Malek, S. E. Science 329, 1180–1182 (2010). 20 hexagons and 12 pentagons — just like path towards a career in scientific research. 7. Campbell, E. K., Holz, M., Gerlich, D. & Maier, J. P. Nature a football, the enduring image that sits at As well as a successful research career, 523, 322–323 (2015). NATURE NANOTECHNOLOGY | VOL 11 | JUNE 2016 | www.nature.com/naturenanotechnology 489 ©2016 Mac millan Publishers Li mited. All ri ghts reserved. .
Recommended publications
  • The Birth of Fullerene Chemistry: Harold W. Kroto Discusses New Lines of Buckyball Research in a Science Watchm Interview
    Current Comments@ EUGENE GARFIELD INSTITUTE FOB SCIENTIFIC !NFORMATION@ I 3501 MARKET ST, PHILADELPHIA, PA I W04 The Birth of Fullerene Chemistry: Harold W. Kroto Discusses New Lines of Buckyball Research in a Science Watchm Interview Number 37 September 13, 1993 A Star Is Born: Discovering the Third Not surprisingly, buckyballs and the new Form of Carbon field of fullerene chemistry have attracted Last week in the engineering and phys- much attention in the press, For example, ics/chemi stry editions of Currenr Contents@ Science selected the buckyball as its Mol- (C@), we published a Citufion Classic@ ecule of the Year in 1991,6 and the Econo- commentary by Harold W. Kroto, Univer- misf called it (be Renaissance Molecule in sity of Sussex, Brighton, EngIand, on the 1992,7 It was first featured in CC in a 1988 1985 Nature paper describing the discov- essay on the most-cited 1985 chemistry pa- ery of buckminsterfullerene, IZ Working pers.~ with a team of colleagues at Rice Univer- h addition, Kroto was interviewed in sity, Houston, led by Richard E, Smalley, Science WaKh@, ISI@’s newsletter ihat Kroto was interested in learning more about &acks quantitative trends in researches The the interstellar formation of long carbon 1992 interview, reprinted below, focused chains in red giant stars. An unexpected on new directions in fullerene research and result of their effort was the serendipitous its applications in various fields. It is a discovery of a third natural form of car- useful companion piece to Kroto’s Cita- bon—the stable Cm molecule named after tion Classic commentary, ] because both R.
    [Show full text]
  • Title Page, Narration, Version 2
    “Save the World” In Memoriam; Richard Smalley Libretto: Arranged by the composer from the writings of and about Richard Smalley (1943-2005) Music: J. Todd Frazier (b. 1969) Written for Narrator and Chamber Ensemble: Flute Oboe Clarinet in Bb Horn in F Bassoon Marimba (5 Octave, medium and soft yarn mallets) Piano Violin(s) 1 Violin(s) 2 Viola(s) Cello(s) Conductor Dedicated to: Richard Smalley (posthumous), Chad Richard Smalley, Robert Curl, Sir Harold Kroto, Jim Heath, Sean O’Brian, Jim Tour, Paul Cherukuri, Mert and Wade Adams, Anne and Albert Chao, Reinnette and Stan Marek, and Susan and C. Richard Stasney, MD Commissioned by: The Richard E. Smalley Institute for Nanoscale Science and Technology at Rice University, made possible by the generous support of Anne and Albert Chao and Reinnette and Stan Marek Concept: C. Richard Stasney, MD Premiere: October 10, 2010, as part of the 25th anniversary celebration of the Buckminsterfullerene discovery; Narrator: Malcom Gillis, Chamber Ensemble: River Oaks Chamber Orchestra Copyright 2010 J. F. Brazos Enterprises Ltd. Program Notes: The 1996 Nobel Prize in Chemistry was shared between Rice University Chemists Richard Smalley and Robert Curl of America, and Sussex University Chemist Harold Kroto of Brittan. It was awarded for the discovery, in 1985, at Rice University in Houston, Texas, of a new form of carbon that possessed extraordinary qualities… qualities that promised to change the world of science, and the world as we know it, in significant and timely ways. Of the 1985 research team,
    [Show full text]
  • Harry Kroto (1939–2016) Discoverer of New Forms of Carbon
    COMMENT OBITUARY Harry Kroto (1939–2016) Discoverer of new forms of carbon. arry Kroto was part of the team that arose from a combination of mass-spectra discovered buckminsterfullerene, data and circumstantial evidence. This was the football-shaped carbon-60 hardly the gold standard of single-crystal Hmolecule that came to be known as a bucky- X-ray analysis for absolute molecular struc- ball. The realization that such a large mol- ture determination. However, the football ecule could self-assemble from hot carbon structure followed Occam’s razor: it tied vapour forced a reassessment of the science together many observations in a simple and of carbon. By prompting searches for other elegant way, and yielded many predictions structures — carbon nanotubes and nano­ that were later proved to be correct, includ- SOCIETY ANNE PURKISS/THE ROYAL wires were among the materials later found ing the structure of a second fullerene, C70. — the discovery ultimately provided a foun- Absolute confirmation of these structures dation for nanoscience and nanotechnology. came five years later, when physicists Don Kroto, who died on 30 April, was born Huffman and Wolfgang Krätschmer and their Harold Krotoschiner in 1939 in Wisbech, groups worked out how to make C60 in bulk. UK, the son of German refugees. During Today, the buckyball is a crucial component the Second World War, his father Heinz of solar cells. was interned on the Isle of Man as an enemy In 1996, Kroto shared the Nobel Prize alien, and Kroto and his mother Edith went in Chemistry with Smalley and one of us to live in the town of Bolton.
    [Show full text]
  • To See Their Biographies
    CivicScientistprécis CivicC - A Model for the Future 60 Robert F. Curl Jr., Ph.D., Sir Harold Kroto, Ph.D., and the late Richard Smalley, Ph.D., are world-renowned scientists, Nobel Prize winners and advocates for science in society. These three scientists were all members of the six-person team that discovered a new carbon molecule, buckminsterfullerene (C60), which revolutionized carbon-based chemistry and established the new and exciting field of research known as nanotechnology. In addition to their scientific achievements, these men have utilized their scientific reputation and expertise to further public engagement and understanding of science to better their communities, nation and world. Curl has advocated for environmental awareness, leadership, and science and math education reform. Kroto has dedicated his time to improving science and math education through the Vega Science Trust initiative. Smalley argued for the development of new technologies to address the world’s increasing energy demands and was a significant proponent for the nation’s and the world’s support of nanotechnology. It is because of these efforts to integrate science and society that Curl, Kroto and Smalley are the 2010 Civic Scientists as named by the Baker Institute Science and Technology Policy Program. Nobel work: The discovery of 60C The discovery of C60 was made possible by Smalley’s invention of a supersonic cluster beam apparatus capable of creating and investigating the properties of clusters of any material. Its application to carbon clusters began with Kroto’s interest in the formation of long-chain carbon molecules. In 1984, Curl, Kroto’s colleague who was at Rice University, introduced him to Smalley and his invention.
    [Show full text]
  • The Discovery of Buckminsterfullerene Topics Allotropy, Organic Chemistry, Chemists
    The discovery of buckminsterfullerene Topics Allotropy, organic chemistry, chemists In 1985, virtually all school chemistry textbooks became out of date overnight. Prior to this, textbooks stated that there were two allotropes of carbon – diamond and graphite. Allotropes are forms of the same element which differ in the way their atoms are arranged. Diamond and graphite are classic examples of allotropy. In diamond the carbon atoms are arranged tetrahedrally and in graphite they form two- dimensional layers of interlinked hexagons. In 1985 the discovery was announced of a third allotrope in which the atoms form C60 molecules in the shape of a football. This led to the award of the 1996 Nobel Prize to Harry (now Sir Harry) Kroto of Sussex University, Robert Curl and Richard Smalley (both of Rice University in Houston, USA). Harry Kroto had an interest in molecules found in interstellar space which can be identified from their microwave spectra – by comparing signals obtained from outer space with those measured for known compounds in the laboratory. He was particularly interested in poly-ynes (molecules with several carbon-carbon triple bonds) but these are difficult to make conventionally. In 1984, Kroto began a collaboration with Smalley and Curl in Houston who had an apparatus called AP2 (‘App-two’). This used a laser to blast clusters of atoms off solid targets and then led the clusters into a mass spectrometer where their relative molecular masses could be measured. Kroto hoped that if a graphite target were used, small sections of graphite layers might rearrange themselves into poly-ynes whose spectra could then be measured.
    [Show full text]
  • Kroto and Charisma a Vision of a Dome Led to the Naming of Buckminsterfullerene
    science and image Kroto and charisma A vision of a dome led to the naming of buckminsterfullerene. This carbon cluster has become an icon for chemistry, thanks to the media-friendly appeal it shares with co-discoverer Sir Harry Kroto. 8 Martin Kemp ometimes it is difficult to know why particular scientific discoveries hit the Spublic headlines. The hugely technical KEN EWARD/SPL solution to Fermat’s last theorem hardly seemed to possess the ingredients for a hit. It could not even resort to the kind of visual appeal that normally helps to bring a discov- ery before the public eye. By contrast, the popular impact of the ‘buckyball’, C60, unabashedly relied upon visual charisma. The story of the identification, modelling and naming of buckminsterfullerene in 1985 already has the quality of legend — like August Kekulé’s vision of the benzene ring in a dream about a snake biting its tail. Sir Harry Kroto tells how his work at Rice University in Houston, Texas (with a team including Robert Curl and Richard Smalley), led to the identification of the 60-atom cluster of car- bon which exhibited a stability at odds with Molecule of buckminsterfullerene in galactic guise. any graphite-like or diamond-like configura- tion. An architecture was required that closed The suggestion welled up from Kroto’s construct the first paper model of the hypo- off the apparently dangling valencies in any of memory of the geodesic dome designed by thetical structure. the immediately plausible arrangements. the architect and visionary inventor, Buck- A crucial component that Kroto brought minster Fuller, for the American pavilion at to the buckyball team was his natural instinct It was difficult to see how a closed Expo ’67 in Montreal.
    [Show full text]
  • National Nanotechnology Initiative Southern Regional Workshop
    N A T I O N A L NANOTECHNOLOGY I N I T I A T I V E SOUTHERN REGIONAL WORKSHOP Nanotechnology: From the Laboratory to New Commercial Frontiers Rice University • McMurtry Auditorium, Duncan Hall • May 23, 2002 FINAL REPORT February 28, 2003 Hosts: Sponsors: N A T I O N A L NANOTECHNOLOGY COORDINATING OFFICE Center for Nanoscale Science and Technology Rice Alliance for Technology & Entrepreneurship Rice University MS-100 Rice University MS-531 6100 Main Street P.O. Box 2932 Houston, Texas 77005 Houston, Texas 77252-2932 Phone: 713.348.4890 Phone: 713.348.3443 Email: [email protected] Fax: 713.348.3110 FINAL REPORT Nanotechnology Workshop: From the Laboratory to New Commercial Frontiers Rice University Houston, Texas Thursday, May 23, 2002 A Regional Workshop of the National Nanotechnology Initiative Organized by the Rice Alliance for Technology and Entrepreneurship, the James A. Baker III Institute for Public Policy and the Center for Nanoscale Science and Technology Sponsored by the U.S. Department of Commerce, U.S. Department of Energy, Federal Aviation Administration, National Science Foundation, and the National Nanotechnology Coordination Office. Table of Contents Executive Summary 1 Workshop Purpose 4 Workshop Charter 4 Program Highlights 6 Welcoming Remarks Dr. Neal Lane, Rice University Plenary Session The Honorable Phillip J. Bond, Undersecretary of Commerce Dr. Richard E. (Rick) Smalley, Rice University Luncheon Session Dr. Mihail (Mike) Roco, National Science Foundation Keynote Speaker - Dr. Malcolm Gillis, Rice University Topical
    [Show full text]
  • Notices of the American Mathematical Society
    - ---- --- ------- Logan Meeting (October 10-11)- Page 775 Charlotte Meeting (October 17-18)- Page 783 Denton Meeting (October 31-November 1)-Page 791 Notices of the American Mathem.atical Society October 1986, Issue 250 Volume 33, Number 5, Pages 705-888 Providence, Rhode Island USA ISSN 0002-9920 Calendar of AMS Meetings THIS CALENDAR lists all meetings which have been approved by the Council prior to the date this issue of Noti~es was sent to the press. The summer and annual meetings are joint meetings of the Mathematical Association of Amer•~a and the American Mathematical Society. The meeting dates which fall rather far in the future are subject to ~hange; th~s is particularly true of meetings to which no numbers have yet been assigned. Programs of the meetings Will _appear In the issues indicated below. First and supplementary announcements of the meetings will have appeared 1n earher 1ssues. ABSTRACTS OF PAPERS presented at a meeting of the Society are published in the journal Abstracts of papers presented to the American Mathematical Society in the issue corresponding to that of the Notices which contains the program of the meeting. Abstracts should be submitted on special forms which are available in many departments of mathematics and from the headquarter's office of the Society. Abstracts of papers to be presented at the meeting must be received at the headquarters of the Society in Providence, Rhode Island. on or before the deadline given below for the meeting. Note that the deadline for abstracts for consideration for presentation at special sessions is usually three weeks earlier than that specified below.
    [Show full text]
  • Bioinstrumentation: Tools for Understanding Life. INSTITUTION National Association of Biology Teachers, Reston, VA
    DOCUMENT RESUME ED 407 284 SE 060 256 AUTHOR Wandersee, James H., Ed.; And Others TITLE Bioinstrumentation: Tools for Understanding Life. INSTITUTION National Association of Biology Teachers, Reston, VA. REPORT NO ISBN-0-941212-23-8 PUB DATE 96 NOTE 338p. AVAILABLE FROM National Association of Biology Teachers, 11250 Roger Bacon Drive #19, Reston, VA 20190-5202. PUB TYPE Guides Classroom Teacher (052) Reference Materials General (130) EDRS PRICE MF01/PC14 Plus Postage. DESCRIPTORS *Biology; Chromatography; DNA; Higher Education; *Instrumentation; *Laboratory Equipment; Microscopes; Observation; Secondary Education; Spectroscopy; Teacher Education; *Technology ABSTRACT This book was written to help introductory biology teachers gain a basic understanding of contemporary bioinstrumentation and the uses to which it is put in the laboratory. It includes topics that are most basic to understanding the nature of biology. The book is divided into five sections: (1) "Separation and Identification" that includes chapters on electrophoresis, chromatographic techniques, immunologic methods, flow cytometry, and centrifugation of biomolecules; (2) "Observation" that includes chapters on advances in light microscopy, transmission electron microscopy, 7.nd scanninrY electron microscopy; (3) "Spectroscopy" that includes chapters on absorption spectroscopy, fluoreL,c. sl2cct=7c,,--T, cross-sectional medical imaging, and infrared spectroscopy; (4) "Biological Tracing and Sensing" that includes a chapter on radionuclides; and (5) "Manipulation of Biological Molecules" that includes chapters ori-recombinant DNA, the polymerase chain reaction, and restriction fragment length polymorphisms. Chapter overviews, concept maps, margin notes, photos of real scientists and their students, overhead transparency masters, and an Internet bioinstrumentation web site directory are also included. (JRH) ******************************************************************************** Reproductions supplied by EDRS are the best that can be made from the original document.
    [Show full text]