CW Scheele, from Pharmacist's Apprentice to Man of Science
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Determination of D003 by Capillary Gas Chromatography
Rev. CENIC Cienc. Quím.; vol. 51. (no.2): 325-368. Año. 2020. e-ISSN: 2221-2442. BIBLIOGRAPHIC REWIEW THE FAMOUS FINNISH CHEMIST JOHAN GADOLIN (1760-1852) IN THE LITERATURE BETWEEN THE 19TH AND 21TH CENTURIES El famoso químico finlandés Johan Gadolin (1760-1852) en la literatura entre los siglos XIX y XXI Aleksander Sztejnberga,* a,* Professor Emeritus, University of Opole, Oleska 48, 45-052 Opole, Poland [email protected] Recibido: 19 de octubre de 2020. Aceptado: 10 de diciembre de 2020. ABSTRACT Johan Gadolin (1760-1852), considered the father of Finnish chemistry, was one of the leading chemists of the second half of the 18th century and the first half of the 19th century. His life and scientific achievements were described in the literature published between the 19th and 21st centuries. The purpose of this paper is to familiarize readers with the important events in the life of Gadolin and his research activities, in particular some of his research results, as well as his selected publications. In addition, the names of authors of biographical notes or biographies about Gadolin, published in 1839-2017 are presented. Keywords: J. Gadolin; Analytical chemistry; Yttrium; Chemical elements; Finnland & Sverige – XVIII-XIX centuries RESUMEN Johan Gadolin (1760-1852), considerado el padre de la química finlandesa, fue uno de los principales químicos de la segunda mitad del siglo XVIII y la primera mitad del XIX. Su vida y sus logros científicos fueron descritos en la literatura publicada entre los siglos XIX y XXI. El propósito de este artículo es familiarizar a los lectores con los acontecimientos importantes en la vida de Gadolin y sus actividades de investigación, en particular algunos de sus resultados de investigación, así como sus publicaciones seleccionadas. -
SN Supplement 5 Fram
Vem samlade var under 1700- och 1800-talen? Entomofaunistikens grundläggande och förutsättningar i Sverige, landskap för landskap av Mattias Forshage NEF > SUPPLEMENT 5, 2020 < NEF Skörvnöpparn, Umeå Supplement 5, 2020: 1-42 Vem samlade var under 1700- och 1800-talen? Entomofaunistikens grundläggande och förutsättningar i Sverige, landskap för landskap MATTIAS FORSHAGE INNEHÅLLSFÖRTECKNING Varför lokalfaunistikhistoria? .............................................................................2 Källor och avgränsningar ....................................................................................2 Den entomofaunistiska litteraturen .....................................................................3 Begränsningar .......................................................................................................3 Tack ........................................................................................................................6 Faunaprovinserna .................................................................................................6 Provinsvis sammanställning .................................................................................7 Skåne .......................................................................................................................7 Blekinge ..................................................................................................................9 Halland ...................................................................................................................9 -
Hjalmar Fors, the Limits of Matter—Chemistry, Mining & Enlightenment
Miner Econ (2015) 28:131–132 DOI 10.1007/s13563-015-0071-2 BOOK REVIEW Hjalmar Fors, The Limits of Matter—Chemistry, mining & enlightenment The University of Chicago Press Chicago USA 2015 Magnus Ericsson1 Published online: 15 September 2015 # Springer-Verlag Berlin Heidelberg 2015 Swedish chemists have discovered more elements than scien- though at that time not united into one yet), France and tists from any other nation. Over more than 100 years, from England? Part of the answer is surprisingly bureaucratisation the early 18th century to the end of the 19th century, 20 ele- or the creation of an administrative institution called ments of which 18 metals or non-metals and 2 gases, nitrogen Bergskollegium in Swedish or English Bureau of Mines as and chlorine were independently isolated and described. Some Hjalmar Fors calls it in his new and path-breaking study of these are as follows: The Limits of Matter—Chemistry, mining & enlightenment. Another part is the need of improved processes and better Element Name Year of discovery yields in Swedish mines, which played such a vital role in Cobalt Brandt 1735 the Swedish economy during this period. The Swedish ruling Nickel Cronstedt 1751 groups saw these demands and founded the Bureau of Mines, Manganese Gahn 1774 which acted in several ways to solve problems, that had arisen in the mining industry. R&D in those days was highly Molybdenum Hjelm 1781 applied but nevertheless led to important purely scientific Yttrium Gadolin 1794 results. Tantalum Ekeberg 1802 The Bureau was set up in 1634 based on a predecessor, Cerium Berzelius 1803 which was started already in 1630. -
I Carl Von Linnés Fotspår
I CARL VON LINNÉS FOTSPÅR I Carl von Linnés fotspår Svenska Linnésällskapet 100 år erik hamberg Svenska Linnésällskapet Uppsala 2018 © Erik Hamberg och Svenska Linnésällskapet 2018 Omslaget visar den Linnémedaljong som tillverkades av Wedgwood till Linnéjubileet 1907. I privat ägo. Foto: Magnus Hjalmarsson, UUB. Produktion: Grafisk service, Uppsala universitet Utformning: Martin Högvall Texten satt med Adobe Garamond Pro ISBN 978-91-85601-43-1 Tryckt i Sverige av DanagårdLiTHO AB, Ödeshög 2018 Innehåll Förord ...................................................................................................... 7 Linnébilden tar form .............................................................................. 11 Tidiga Linnésällskap i Sverige ................................................................ 13 Linnéjubileer 1807–1907 ........................................................................ 15 Forskare och samlare med Linnéintressen .............................................. 19 Svenska Linnésällskapet bildas ............................................................... 23 Insamling av Linnéminnen .................................................................... 29 Linnémuseet .......................................................................................... 33 Linnéträdgården .................................................................................... 47 Elof Förbergs bibliotek ........................................................................... 63 Linnés Hammarby ................................................................................ -
Anders Adolf Retzius
Anders Adolf Retzius Anders Adolf Retzius (* 13. Oktober 1796 in Lund; † 18. April 1860 in Stockholm) war ein schwedischer Anatom und Anthropologe. Inhaltsverzeichnis Leben Wirken Beiträge zur Anatomie Beiträge zur Anthropologie Beiträge zur Kraniometrie Mitglied wissenschaftlicher Gesellschaften Eponyme Anatomie Auszeichnungen Werke (Auswahl) Anders Retzius Einzelnachweise Literatur Weblinks Leben Schon in seiner Kindheit wurde Retzius von seinem Vater Anders Jahan Retzius (1742–1821) mit der Naturgeschichte vertraut gemacht, insbesondere mit der Zoologie. Während seines Medizinstudiums in Lund und Kopenhagen stand er unter dem Einfluss des Anatomen Arvid Henrik Florman (1761–1840), der ihn in die Methoden der Präparation einführte. Im Jahre 1816 verbrachte Retzius ein Studienjahr in Kopenhagen und befreundete sich mit dem Anatomen Ludwig Levin Jacobson (1783–1843), dem Physiker Hans Christian Ørsted (1777–1851) und dem Zoologen Johan Christopher Hagemann Reinhardt (1776–1845). Nach seiner Rückkehr nach Lund beendete er dort sein Medizinstudium. 1817 erhielt er das Medizin licentiat und wurde 1818 zum kirurgie magister ernannt. 1819 legte er seine Dissertation über die Anatomie der Knorpelfische (Katzenhai) vor (Observationes in anatomiam chondropterygium praecipue Squali et rajae generum). Retzius diente als Militärarzt, zuerst in Schonen, später in Jämtland. 1823, vier Jahre nach seinem Doktorat, wurde Retzius Professor für Veterinärmedizin am Veterinär-Institut in Stockholm, wo er ein Anatomisches Museum gründete. Seit 1824 war er Lehrer der Anatomie am Karolinska-Institut, 1824 stellvertretender Professor (1830 zugleich Inspektor), das er als ordentlicher Professor der Anatomie von 1840 bis zu seinem Tode am 18. April 1860 leitete. Anders Retzius heiratete 1835; seine zweite Frau, die Mutter von Magnus Gustaf Retzius (1842–1919), war Emilia Sofia Wahlberg, eine Schwester des Botanikers und Entomologen Peter Fredrik Wahlberg (1800–1877). -
Project Note Weston Solutions, Inc
PROJECT NOTE WESTON SOLUTIONS, INC. To: Canadian Radium & Uranium Corp. Site File Date: June 5, 2014 W.O. No.: 20405.012.013.2222.00 From: Denise Breen, Weston Solutions, Inc. Subject: Determination of Significant Lead Concentrations in Sediment Samples References 1. New York State Department of Environmental Conservation. Technical Guidance for Screening Contaminated Sediments. March 1998. [45 pages] 2. U.S. Environmental Protection Agency (EPA) Office of Emergency Response. Establishing an Observed Release – Quick Reference Fact Sheet. Federal Register, Volume 55, No. 241. September 1995. [7 pages] 3. International Union of Pure and Applied Chemistry, Inorganic Chemistry Division Commission on Atomic Weights and Isotopic Abundances. Atomic Weights of Elements: Review 2000. 2003. [120 pages] WESTON personnel collected six sediment samples (including one environmental duplicate sample) from five locations along the surface water pathway of the Canadian Radium & Uranium Corp. (CRU) site in May 2014. The sediment samples were analyzed for Target Analyte List (TAL) Metals and Stable Lead Isotopes. 1. TAL Lead Interpretation: In order to quantify the significance for Lead, Thallium and Mercury the following was performed: 1. WESTON personnel tabulated all available TAL Metal data from the May 2014 Sediment Sampling event. 2. For each analyte of concern (Lead, Thallium, and Mercury), the highest background concentration was selected and then multiplied by three. This is the criteria to find the significance of site attributable release as per Hazard Ranking System guidelines. 3. One analytical lead result (2222-SD04) of 520 mg/kg (J) was qualified with an unknown bias. In accordance with US EPA document “Using Data to Document an Observed Release and Observed Contamination”, 2222-SD03 lead concentration was adjusted by dividing by the factor value for lead of 1.44 to equal 361 mg/kg. -
Carl Peter Thunberg and Japanese Natural History
ISSN: 2186-8476, ISSN: 2186-8468 Print Vol. 2 No. 2, June 2013 CARL PETER THUNBERG AND JAPANESE NATURAL HISTORY Bertil Nordenstam Department of Phanerogamic Botany, Swedish Museum of Natural History, Box 50007, SE-10405 Stockholm, SWEDEN. 1 [email protected] ABSTRACT Carl Peter Thunberg (1743-1828) was the most famous of Linnaeus’s pupils and became known as the `Linnaeus of Japan`. However, he was a zoologist almost as much as a botanist and should be remembered also for his lasting contributions to zoology, especially entomology. He published about 160 zoological papers, 90 of which dealt with insects, and he described more than 1,500 new species of insects. One of his first scientific papers dealt with the new grasshopper genus Pneumora from South Africa. Thunberg’s insect collections amount to 36,000 specimens and are largely intact as today. He was also the author of several mammals, such as the Brown Hyaena, and a number of reptiles and fishes, including several new species from Japan. Keywords: Thunberg, Japanese natural history, Entomology, Linnaean disciple, Taxonomy, History of science INTRODUCTION We tend to think of Linnaeus and many of his foremost pupils as botanists. Linnaeus has been famed as ‘ Princeps botanicorum’ , and his perhaps most successful disciple, Carl Peter Thunberg (1743—1828; Fig. 1), has been named the ‘Father of South African Botany’ and also the ‘Linnaeus of Japan’. However, most of the Linnaean apostles, like Linnaeus himself, were medical doctors and zoologists as well – in fact they are better labeled as naturalists, or natural history scientists. Their academic positions were not in botany, but rather in medicine and botany, and similar combinations. -
RBRC-32 BNL-6835.4 PARITY ODD BUBBLES in HOT QCD D. KHARZEEV in This ~A~Er We Give a Pedawwicalintroduction~0 Recent Work Of
RBRC-32 BNL-6835.4 PARITY ODD BUBBLES IN HOT QCD D. KHARZEEV RIKEN BNL Research Center, Br$ookhauenNational Laboratory, . Upton, New York 11973-5000, USA R.D. PISARSKI Department of Physics, Brookhaven National Laboratoy, Upton, New York 11973-5000, USA M.H.G. TYTGAT Seruice de Physique Th&orique, (7P 225, Uniuersitc4Libre de Bruzelles, B[ud. du !t%iomphe, 1050 Bruxelles, Belgium We consider the topological susceptibility for an SU(N) gauge theory in the limit of a large number of colors, N + m. At nonzero temperature, the behavior of the topological susceptibility depends upon the order of the reconfining phrrse transition. The meet interesting possibility is if the reconfining transition, at T = Td, is of second order. Then we argue that Witten’s relation implies that the topological suscepti~lfity vanishes in a calculable fdion at Td. Ae noted by Witten, this implies that for sufficiently light quark messes, metaetable etates which act like regions of nonzero O — parity odd bubbles — can arise at temperatures just below Td. Experimentally, parity odd bubbles have dramatic signature% the rI’ meson, and especially the q meson, become light, and are copiously produced. Further, in parity odd bubbles, processes which are normally forbidden, such as q + rr”ro, are allowed. The most direct way to detect parity violation is by measuring a parity odd global seymmetry for charged pions, which we define. 1 Introduction In this .-~a~er we give a Pedawwicalintroduction~0 recent work of ours? We I consider an SU(IV) gau”ge t~e~ry in the limit of a large number of colors, N + co, This is, of course, a familiar limit? We use the large N expansion I to investigate the behavior of the theory at nonzero temperature, especially for the topological susceptibility. -
Hexagon Fall
Redis co very of the Elements The Rare Earth s–The Beginnings I I I James L. Marshall, Beta Eta 1971 , and Virginia R. Marshall, Beta Eta 2003 , Department of Chemistry, University of North Texas, Denton, TX 76203-5070, [email protected] 1 Rare earths —introduction. The rare earths Figure 1. The “rare earths” are defined by IUPAC as the 15 lanthanides (green) and the upper two elements include the 17 chemically similar elements of the Group III family (yellow). These elements have similar chemical properties and all can exhibit the +3 occupying the f-block of the Periodic Table as oxidation state by the loss of the highest three electrons (two s electrons and either a d or an f electron, well as the Group III chemical family (Figure 1). depending upon the particular element). A few rare earths can exhibit other oxidation states as well; for These elements include the 15 lanthanides example, cerium can lose four electrons —4f15d 16s 2—to attain the Ce +4 oxidation state. (atomic numbers 57 through 71, lanthanum through lutetium), as well as scandium (atomic number 21) and yttrium (atomic number 39). The chemical similarity of the rare earths arises from a common ionic configuration of their valence electrons, as the filling f-orbitals are buried in an inner core and generally do not engage in bonding. The term “rare earths” is a misnome r—these elements are not rare (except for radioactive promethium). They were named as such because they were found in unusual minerals, and because they were difficult to separate from one another by ordinary chemical manipula - tions. -
Elias Magnus Fries Och Carl Adolph Agardh Om Vetenskaplig Metodik Och Möjligheten Att Konstruera Ett Naturligt System Inom Botaniken
Elias Magnus Fries och Carl Adolph Agardh om vetenskaplig metodik och möjligheten att konstruera ett naturligt system inom botaniken Lunds universitet Magnus Krook Språk- och litteraturcentrum Magisteruppsats LATM04 Lund 2014 Handledare: Professor Arne Jönsson Abstract Kring sekelskiftet 1800 dominerades den svenska botaniska forskningen av Carl von Linnés vetenskapliga gärning som hos hans omedelbara efterföljare stelnat i ortodoxi och brist på kreativitet. Den från Tyskland emanerande romantiska naturfilosofin med Friedrich Wilhelm Joseph von Schelling som förgrundsgestalt gav efterhand avtryck även inom den svenska naturvetenskapen. Botanikerna Carl Adolph Agardh (1785-1859) och Elias Magnus Fries (1794-1878) var båda djupt påverkade av den romantiska filosofin i sina vetenskapliga arbeten. En av romantikens centrala idéer var att det bakom de olika naturalstrens mångfald fanns en enhet för naturforskaren att upptäcka, och både Agardh och Fries omfattade denna tanke fullt ut. Agardh var huvudsakligen specialiserad på alger, Fries ägnade sig åt svampar och lavar. Linné hade åstadkommit ett artificiellt system för växterna som fått stor spridning, men hans ouppfyllda mål var att upprätta ett naturligt system. Agardh och Fries tog vid där Linné slutade. Med utgångspunkt från den romantiska filosofin angriper de växtvärldens systematisering från var sin ände. Fries börjar med de högst utvecklade växterna och arbetar sig nedåt. Genom en strikt logisk metod delar han in växtvärlden i allt mindre enheter. Agardh avvisar däremot logikens användning inom biologin. Han utgår från de lägst utvecklade växterna och arbetar sig uppåt, en process där de empiriska erfarenheterna bit för bit fogas samman till en helhet. Agardh och Fries företrädde utvecklingstankar som stod i stark motsättning till den moderna evolutionsteorin. -
Kemivandring ‐ Uppsala]
Uppsala Universitet [KEMIVANDRING ‐ UPPSALA] En idéhistorisk vandring med nedslag i kemins Uppsala och historiska omvärld i urval. Karta: 1. Academia Carolina, Riddartorget 2. Gustavianum 3. Skytteanum 4. Fängelset vid domtrappan 5. Kungliga vetenskaps‐societeten 6. St. Eriks källa, akademikvarnen 7. Starten för branden 1702 8. Celsiushuset 9. Scheeles apotek (revs 1960) 10. Gamla kemikum, Wallerius/Bergman 11. Carolina Rediviva 12. Nya Kemikum/Engelska parken 13. The Svedberg laboratoriet 14. BMC, Uppsala Biomedicinska centrum 15. Ångströmlaboratoriet Uppsala Universitet [KEMIVANDRING ‐ UPPSALA] Uppsala universitet: kort historik[Karta: 1‐4] Uppsala universitet grundades 1477 av katolska kyrkan som utbildningsinstitution för präster och teologer. Det är nordens äldsta universitet och var vid tidpunkten världens nordligaste universitet. Domkyrkorna utbildade präster men för högre utbildningar var svenskar från 1200‐ talet och framåt tvungna att studera vid utländska universitet i till exempel Paris eller Rostock. Den starkast drivande kraften för bildandet av Uppsala universitet var Jakob Ulvsson som var Sveriges ärkebiskop mellan år 1469‐1515 och därmed den som innehaft ämbetet längst (46 år). Vid domkyrkan mot riddartorget finns en staty av Jakob Ulvsson av konstnären och skulptören Christian Eriksson. Statyns porträttlikhet med Ulvsson är förstås tvivelaktig eftersom man inte vet hur Jakob Ulvsson såg ut. Konstnären studerade i Paris tillsammans med Nathan Söderblom och det sägs att Eriksson hade honom som förebild för Ulvsson statyn och som därmed fick mycket lika ansiktsdrag som Söderblom. (Nathan Söderblom var ärkebiskop i Uppsala 1914‐ 1931, grundade den Ekumeniska rörelsen och fick Nobels fredspris 1930). Till en början bestod undervisningen vid Uppsala universitet främst av filosofi, juridik och teologi. Någon teknisk eller naturvetenskap utbildning fanns inte vid denna tidpunkt. -
Newsletter O U R S E L E C T I O N a T T H E L O N D O N International Antiquarian B O O K F a I R O L Y M P I a 24–26 M a Y 2012
11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE 11 20 BOHMAN RICE AT BE SWEDEN SVERIGE LA SUÈDE SAINT BRIDGET 1303–1373 LINNAEUS 1707–1778 STRINDBERG 1849–1912 Newsletter OUR SELECTION AT THE LONDON INTERNATIONAL ANTIQUARIAN BOOK FAIR OLYMPIA 24–26 MAY 2012 jakobsgatan 27b / p.o box 16394 / se-103 27 stockholm, sweden MATS REHNSTRÖM Rare books tel. +46 8 411 92 24 / fax: +46 8 411 94 61 / e-mail: [email protected] 4. Science, Medicine & The books offered below are subject to prior sale. 1. AGARDH, C. A. Icones algarum europae- arum. Représentation d’algues européennes Technology suivie de celle d’espèces exotiques les plus re- marquables recemment découvertes. Avec 40 planches coloriées. Leipzig, L. Voss, 1828-35. 8:o. (90) pp. & 40 handcoloured litographed plates. + AGARDH, JACOB A. Algæ maris Mediterranei et Adriatici, observationes in di- agnosin specierumet dispositionem generum. Paris, A. Saintin, 1842. 8:o (2),X,164 pp. Slightly worn contemporary full calf with broad raised 25. bands, gilt and blind tooled spine and green mo- rocco spine labels (bound by Taylor & Walton). Marbled edges. Boards with narrow gilt and blind tooled borders and extremities. Slightly faded on upper part of the boards. Spine in part slightly miscoloured.