Authorship and Teamwork Around the Cimento Academy: Mathematics, Anatomy, Experimental Philosophy
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PERSPECTIVE Steno, Targioni and the Two Forerunners
dominici:ARGENTI 11/01/2010 11:40 Pagina 101 Journal of Mediterranean Earth Sciences 1 (2009), 101-110 doi:10.3304/JMES.2009.011 Journal of Mediterranean Earth Sciences JME S PERSPECTIVE Steno, Targioni and the two forerunners Stefano Dominici* Museo di Storia Naturale, Sezione di Geologia e Paleontologia, Università degli Studi di Firenze Via La Pira, 4 - 50121 Firenze, Italy ABSTRACT - The brief and enigmatic Forerunner written by Nicholas Steno after a two-year residence in Tuscany (1667- 1668) contains several basic intuitions of earth sciences. His work influenced contemporary natural philosophers through Europe, but was seemingly forgotten in the course of the next century. Only in Florence the naturalist and polymath Giovanni Targioni Tozzetti undertook a geological study of Tuscany and tested the validity of Steno’s hypothesis on the origin of mountains and hills. In relevant passages of his Travels (1751-1754), Targioni expressed a substantial agreement with Steno’s reconstruction, therefore planning a modernized version of Steno’s theory of the earth, which he published in his own Forerunner (1754). In this work he sets the agenda for the new disciplines of physical chorography and topography, wishing to complete their application to Tuscany in his own lifetime, so that Tuscany could be presented as a template of the earth. His fame as author of Travels and owner of one of the best natural history museums of Europe reached many savants who visited him and learned the results of his fieldwork and his geotheory. Some of the people who met with Targioni have influenced the development of geology, and important aspects of his ideas can be found in their writings. -
On the Isochronism of Galilei's Horologium
IFToMM Workshop on History of MMS – Palermo 2013 On the isochronism of Galilei's horologium Francesco Sorge, Marco Cammalleri, Giuseppe Genchi DICGIM, Università di Palermo, [email protected], [email protected], [email protected] Abstract − Measuring the passage of time has always fascinated the humankind throughout the centuries. It is amazing how the general architecture of clocks has remained almost unchanged in practice to date from the Middle Ages. However, the foremost mechanical developments in clock-making date from the seventeenth century, when the discovery of the isochronism laws of pendular motion by Galilei and Huygens permitted a higher degree of accuracy in the time measure. Keywords: Time Measure, Pendulum, Isochronism Brief Survey on the Art of Clock-Making The first elements of temporal and spatial cognition among the primitive societies were associated with the course of natural events. In practice, the starry heaven played the role of the first huge clock of mankind. According to the philosopher Macrobius (4 th century), even the Latin term hora derives, through the Greek word ‘ώρα , from an Egyptian hieroglyph to be pronounced Heru or Horu , which was Latinized into Horus and was the name of the Egyptian deity of the sun and the sky, who was the son of Osiris and was often represented as a hawk, prince of the sky. Later on, the measure of time began to assume a rudimentary technical connotation and to benefit from the use of more or less ingenious devices. Various kinds of clocks developed to relatively high levels of accuracy through the Egyptian, Assyrian, Greek and Roman civilizations. -
Jan Kochanowski University Press
Jan Kochanowski University Press This is a contribution from Token: A Journal of English Linguistics Volume 8/2019. Edited by John G. Newman, Marina Dossena and Sylwester Łodej. Special Editors for volume 8: Giovanni Iamartino and Irma Taavitsainen. © 2019 Jan Kochanowski University Press. Token: A Journal of English Linguistics 8, 2019 Italy and the Royal Society: Medical papers in the early Philosophical Transactions Lucia Berti University of Milan ABSTRACT During the first years of the Royal Society’s existence, a whole network of natural philosophical exchanges was set up between the Fellows and foreign gentlemen interested in the study of nature. From the exchanges with Italy, medicine appears to be one of the major topics of interest; and a series of medical papers based on Italian researches appear in the Society’s journal, the Philosophical Transactions (PT). This article is a linguistic and socio-historical analysis of 25 medical papers published in the PT in the first fifty years of its existence. The selected articles were either translations of Italian writings or reports of Italian research. The purpose of the study is: (1) to illustrate from a linguistic and socio-cultural point of view the nature of Italian medical contributions to the early PT; and (2) to investigate Anglo-Italian relations through the Royal Society’s medical interaction with Italians by analysing the PT articles and further contextual resources from a critical perspective. Keywords: Anglo-Italian relations, medical writing, Philosophical Transactions, Royal Society, seventeenth century. And your own intelligence will spur you on, without the urging of others, to inform yourself about these matters; in the same way you will be led, without doubt, to encourage all the keen minds of Italy to employ their talents in advancing the sciences and the arts by observations and experiments faithfully and diligently performed. -
Rudi Mathematici
Rudi Mathematici Y2K Rudi Mathematici Gennaio 2000 52 1 S (1803) Guglielmo LIBRI Carucci dalla Somaja Olimpiadi Matematiche (1878) Agner Krarup ERLANG (1894) Satyendranath BOSE P1 (1912) Boris GNEDENKO 2 D (1822) Rudolf Julius Emmanuel CLAUSIUS Due matematici "A" e "B" si sono inventati una (1905) Lev Genrichovich SHNIRELMAN versione particolarmente complessa del "testa o (1938) Anatoly SAMOILENKO croce": viene scritta alla lavagna una matrice 1 3 L (1917) Yuri Alexeievich MITROPOLSHY quadrata con elementi interi casuali; il gioco (1643) Isaac NEWTON consiste poi nel calcolare il determinante: 4 M (1838) Marie Ennemond Camille JORDAN 5 M Se il determinante e` pari, vince "A". (1871) Federigo ENRIQUES (1871) Gino FANO Se il determinante e` dispari, vince "B". (1807) Jozeph Mitza PETZVAL 6 G (1841) Rudolf STURM La probabilita` che un numero sia pari e` 0.5, (1871) Felix Edouard Justin Emile BOREL 7 V ma... Quali sono le probabilita` di vittoria di "A"? (1907) Raymond Edward Alan Christopher PALEY (1888) Richard COURANT P2 8 S (1924) Paul Moritz COHN (1942) Stephen William HAWKING Dimostrare che qualsiasi numero primo (con (1864) Vladimir Adreievich STELKOV l'eccezione di 2 e 5) ha un'infinita` di multipli 9 D nella forma 11....1 2 10 L (1875) Issai SCHUR (1905) Ruth MOUFANG "Die Energie der Welt ist konstant. Die Entroopie 11 M (1545) Guidobaldo DEL MONTE der Welt strebt einem Maximum zu" (1707) Vincenzo RICCATI (1734) Achille Pierre Dionis DU SEJOUR Rudolph CLAUSIUS 12 M (1906) Kurt August HIRSCH " I know not what I appear to the world, -
Talking Science at the University of Padua in the Age of Antonio Vallisneri
Feingold run04.tex V1 - 07/20/2009 4:10pm Page 117 Talking Science at the University of Padua in the Age of Antonio Vallisneri Brendan Dooley Even for an accomplished scholar like Antonio Vallisneri, it was no simple matter to declaim extemporaneously in Latin before a public possibly demanding the best from a setting where Vesalius and Fabricius had once changed medical education forever in the West. Therefore successful completion of the inaugural lecture was a cause for celebration, so he wrote to the Tuscan grand ducal librarian Antonio Magliabechi in 1700: ‘Today is a holy day for me, since I made my solemn entrance into the university favoured by the applause of all the learned, the podesta` [of Padua] and the captain of the city’. The difficulty of the task was underscored by the special requirements of this setting: ‘I was able to speak for a whole hour with total clarity of memory and self-possession, such that I was myself surprised at my weak nature rendered so daring on this magnificently terrible occasion’. He recalled the unfortunate case of a law professor who failed at the same task ‘and died of woe a few days later’.1 But his work was far from done; and already as the school year began, he considered the daunting task before him: ‘I find the job particularly difficult, moreover, having to learn so many lessons by heart, which arrive at the number of eighty or more’2 As first professor of practical medicine, he was supposed to deliver a given number of lessons over portions of the period between September and June when classes were in session; and following a well-established custom, he walked into class each time without notes. -
Nummer Toegang: 1.02.01 Inventaris Van Het
Nummer Toegang: 1.02.01 Inventaris van het archief van C. van Heemskerck [levensjaren 1646-1702]: Gezant te Wenen, te Brussel, te Madrid, te Altona, te Constantinopel en te Parijs, 1672-1701 Versie: 15-08-2019 Th.H.P.M. Thomassen Nationaal Archief, Den Haag 1994 This finding aid is written in Dutch. 1.02.01 Heemskerck 3 INHOUDSOPGAVE Beschrijving van het archief......................................................................................5 Aanwijzingen voor de gebruiker................................................................................................6 Openbaarheidsbeperkingen.......................................................................................................6 Beperkingen aan het gebruik......................................................................................................6 Materiële beperkingen................................................................................................................6 Aanvraaginstructie...................................................................................................................... 6 Citeerinstructie............................................................................................................................ 6 Archiefvorming...........................................................................................................................7 Geschiedenis van de archiefvormer............................................................................................7 Vrijwilliger op de vloot en bestuurder -
MISCELLANEA GEOGRAPHICA WARSZAWA 1992 Vol
MISCELLANEA GEOGRAPHICA WARSZAWA 1992 Vol. 5 Zdzislaw Mikulski ON THE ORIGIN OF THE TERM "HYDROLOGY" AND DERIVATIVE SCIENCES It is for some time now that the science on water in nature, particularly its branch dealing with the circulation of water on the Earth, has been given a name of hydrology. However, hydrology is a relatively young science, that is why it is just forming its specialist terminology; it is difficult to define more precisely a date of emergence of the term "hydrology". It orginates from two Greek words: hydor (water) and logos (word, idea, science). Meanwhile, apart fram Thales of Miletus , "hydrologist of antiquity" (Biswas 1970), water was studied i.a. by Plato and his pupil, Aristotle, founder of the scholl of science "Lyceum", author of the treatise Meteorologica containing also a considerable load of hydrological knowledge. Relatively early, that is in the mid-17th century, a term "hydrography" ap- peared in the work Geografia generalis published in 1650 in Amsterdam (Fig. 1) by Bernardus Varenius (1622-1650), "the most famous geographer of those times" (Biswas 1970). The author understood the term "hydrography" as a des- cription of water on the terrestial globe, and first of all as a description of oceans. Soon this term was used by a well-known Italian astronomer, mathe- matician and physicist Giovanni Battista (Giambattista) Riccioli (1598-1671) in his work Geographie et hydrographie reformati libri duodecim published in 1661 in Bologna. At that time, the term "hydrostatics" appeared in 1663 in the work by Jesuit mathematician and naturalist Kaspar (Casparus) Schott (1608-1666) of Wiirz- burg, entitled Anatomia physico-hydrostatica fontiumae fluminum. -
La Academia Del Cimento (1657-1667)
LA ACADEMIA DEL CIMENTO (1657-1667) LA ACADEMIA DEL CIMENTO (1657-1667) SUSANA GÓMEZ LÓPEZ Universidad Complutense, de Madrid. Cuando se habla del proceso de institucionalización de la ciencia en la Revolución Científica del siglo XVII prácticamente siempre se citan tres ca- sos ejemplares muy cercanos cronológicamente entre sí: La florentina Accademia del Cimento, la Royal Society de Londres y la Academie des Sciences de París, toda ellas surgidas en la década que va de mediados de los años cincuenta a mediados de los sesenta. Y la reunión de estos tres casos en el capítulo de institucionalización ha estado guiada, para buena parte de la His- toria de la Ciencia, por la idea de que estas sociedades eran la materialización de los ideales baconianos de colaboración científica, los intereses prácticos, la necesidad de establecer nuevas vías de comunicación de ideas, inventos, 443 SEMINARIO «OROTAVA» DE HISTORIA DE LA CIENCIA - AÑO XI-XII hipótesis o descubrimientos y otros elementos afines que caracterizarán, a partir de esas fechas, a la ciencia moderna. Cada una de estas sociedades, sin embar- go, tuvo unas motivaciones, unas características, una estructura y unos objeti- vos tan diferentes que hablar de un proceso lineal y común de institucionaliza- ción de la ciencia europea en aquel periodo no sólo es equivocado, sino que conlleva los peligros de ocultar las verdaderas inspiraciones y objetivos que estuvieron en la base de tales asociaciones de hombres de ciencia. En especial el caso de la Academia del Cimento nació como elemento representativo de un proyecto científico que poco tenía que ver con esos ras- gos característicos de la moderna insitucionalización científica y compartía mucho, en cambio, con una tradición renacentista y cortesana de academias de hombres cultos y literatos. -
The Geometry of Trifocal Curves with Applications in Architecture, Urban
The Geometry of Trifocal Curves with Applications in Architecture, Urban and Spatial Planning Maja Petrović, University of Belgrade, Faculty of Transport and Traffic Engineering, Belgrade, Serbia; Address: Vojvode Stepe 305, 11000 Beograd, Serbia, telephone: +381 11 3091 259, fax: +381 11 3096 704, e-mail: [email protected] Bojan Banjac, University of Belgrade, Faculty of Electrical Engineering, Belgrade, Serbia, University of Novi Sad, Faculty of technical sciences – Computer Graphics Chair, Novi Sad, Serbia Branko Malešević, University of Belgrade, Faculty of Electrical Engineering, Belgrade, Serbia In this paper we consider historical genesis of trifocal curve as an optimal curve for solving the Fermat’s problem (minimizing the sum of distance of one point to three given points in the plane). Trifocal curves are basic plane geometric forms which appear in location problems. We also analyze algebraic equation of these curves and some of their applications in architecture, urbanism and spatial planning. The area and perimeter of trifocal curves are calculated using a Java application. The Java applet is developed for determining numerical value for the Fermat-Torricelli-Weber point and optimal curve with three foci, when starting points are given on an urban map. We also present an application of trifocal curves through the analysis of one specific solution in South Stream gas pipeline project. Key-words: Fermat-Torricelli-Weber point, trifocal curve, Java applet. 1. Historical concerns of optimal location The Fermat problem is given in original Latin as (Fermat, 1679): “datis tribus punctis, quartum reperire, a quo si ducantur tres rectae ad data puncta, summa trium harum rectarum sit minima quantitas” or in the English translation “for three given points, the fourth is to be found, from which if three straight lines are drawn to the given points, the sum of the three lengths is minimum” (Brazil et al., 2013). -
Abraham Ecchellensis)
Institute of Lebanese Thought at Notre Dame University – Louaize, Lebanon Translations of Ibrāhīm al-Ḥaqilānī (Abraham Ecchellensis) Books (Chronological Thematical Order) Applied and Natural Sciences 1. The Path of Wisdom Meaning the Method of Comparative Science, From Arabic into Latin, Applied Sciences, Published, Semita sapientiae, sive ad scientias comparandas methodus Paris, apud Adrianum Taupinard, 1646, MDCXLVI ،In-8º, 104 pages. Reprinted by Hadrianus Relandus, Trajecti ad Rhenum, 1709. 2. A Book in the Properties of Animals, Plants and Gems and their Impact Among Doctors, From Arabic into Latin, Natural Sciences, Published, De Proprietatibus ac virtutibus Medicis Animalium, Plantarum ac Gemmarum, Tractatus Triplex Al-Ḥaqilānī translated this book by ʿAbd al-Raḥmān bin Abū Bakr As-Suyūṭī, Paris, Apud Sebastianum Cramoisy et Gabrielem Cramoisy, 1647, In-8º, 179 pages with an index.1 3. Book of Lemmas, Applied Sciences, Translation, Ms., Assumpta seu Lemmata Translation of this book attributed to Archimedes, 1661. 2 1 Duverdier, Gérald, Le Livre et le Liban Jusqu’à 1900, Paris, UNESCO; AGECOOP, 1982, p. 251. 2 Ḥāqilānī, Fuād Zūqī, Ibrāhīm Al-Ḥāqilānī, in the fourth centenary of his birth 1605 - 2005, Seminar, Lebanese Center for Community Research, Notre Dame University Press, Zouk Mosbeh, 2005, p. 151. 1 Institute of Lebanese Thought at Notre Dame University – Louaize, Lebanon 4. A Study on Cones, From Arabic into Latin, Applied Sciences, Published, Conicorum libri V, VI, VII Al-Ḥaqilānī translated with Giovani Alfonso Borelli this book written by Apollonios de Perga, and it was printed in Florence at the J. Cocchini Press, 1661, in-fol., 4 Parts in One Volume. -
Gevaarlijke Kennis (Dangerous Knowledge, 2007, Sample Translation)
Sample Translation Dangerous Knowledge (Gevaarlijke kennis) by Luuc Kooijmans (Amsterdam: Bert Bakker, 2007) Translated by Diane Webb LUUC KOOIJMANS – DANGEROUS KNOWLEDGE III IN SEARCH OF A REPUTATION Niels Stensen and Jan Swammerdam faced an uncertain future. There were no paid positions for research scientists, and those wishing to indulge in observation and experimentation were forced to do so in their free time. To earn a living, Stensen and Swammerdam would have had to become practising physicians, but the idea did not appeal to them. Not only had almost all current medical theories been called into question – owing in no small part to their own work – but they also believed that the foundations of medical science were too shaky to sustain any serious practice. A great many anatomical and physiological issues had first to be resolved, and as physicians they would have far too little time for this. Even as university lecturers they could not be certain of continuing their research, for empirical study was not a generally accepted approach in academic medicine. Universities were primarily institutions for the dissemination of classical learning, with little attention being paid to new findings. The lack of any convincing alternative had led most European universities to cling to outmoded teaching material, and the spirit of Aristotle still prevailed. Students were given Galen and Hippocrates to read, and were instructed in the doctrine of the four humours. There were, however, outside the universities, various forms of private seminars, in which more widely ranging and controversial material could be handled than in university lectures, and where fresh insights therefore made faster inroads. -
Marsili's Oceanographic Cruise
APRIL 2018 P I N A R D I E T A L . 845 Measuring the Sea: Marsili’s Oceanographic Cruise (1679–80) and the Roots of Oceanography a b b c d NADIA PINARDI, EMIN ÖZSOY, MOHAMMED ABDUL LATIF, FRANCA MORONI, ALESSANDRO GRANDI, e e f GIUSEPPE MANZELLA, FEDERICO DE STROBEL, AND VLADYSLAV LYUBARTSEV a Department of Physics and Astronomy, University of Bologna, Bologna, Italy b Institute of Marine Sciences, Erdemli, Mersin, Turkey c Emilia Romagna Regional Agency, Bologna, Italy d Istituto Nazionale di Geofisica e Vulcanologia, Bologna, Italy e Historical Oceanography Society, La Spezia, Italy f Centro Euro-Mediterraneo per i Cambiamenti Climatici, Bologna, Italy (Manuscript received 25 August 2017, in final form 3 February 2018) ABSTRACT The first in situ measurements of seawater density that referred to a geographical position at sea and time of the year were carried out by Count Luigi Ferdinando Marsili between 1679 and 1680 in the Adriatic Sea, Aegean Sea, Marmara Sea, and the Bosporus. Not only was this the first investigation with documented oceanographic mea- surements carried out at stations, but the measurements were described in such an accurate way that the authors were able to reconstruct the observations in modern units. These first measurements concern the ‘‘specific gravity’’ of seawaters (i.e., the ratio between fluid densities). The data reported in the historical oceanographic treatise Osservazioni intorno al Bosforo Tracio (Marsili) allowed the reconstruction of the seawater density at different geographic locations between 1679 and 1680. Marsili’s experimental methodology included the collection of surface and deep water samples, the analysis of the samples with a hydrostatic ampoule, and the use of a reference water to standardize the measurements.