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Downloading the Application Form at the Following Address
Hanno Collaborato A queSto NumeRo: IL NUOVO SAGGIATORE f. K. A. Allotey, L. Belloni, BOLLETTINO DELLA SOCIETÀ ITALIANA DI FISICA G. Benedek, A. Bettini, t. m. Brown, Nuova Serie Anno 26 • N. 5 settembre-ottobre 2010 • N. 6 novembre-dicembre 2010 f. Brunetti, G. Caglioti, R. Camuffo, A. Cammelli, e. Chiavassa, DIRETTORE RESPONSABILE ViCeDiRettoRi ComitAto scieNtifiCo L. Cifarelli, e. De Sanctis, A. Di Carlo, Luisa Cifarelli Sergio focardi G. Benedek, A. Bettini, i. Di Giovanni, R. fazio, f. ferrari, Giuseppe Grosso S. Centro, e. De Sanctis, S. focardi, R. Gatto, A. Gemma, e. iarocci, i. ortalli, L. Grodzins, G. Grosso, f. Guerra, f. Palmonari, R. Petronzio, f. iachello, W. Kininmonth, e. Longo, P. Picchi, B. Preziosi S. mancini, P. mazzoldi, A. oleandri, G. onida, V. Paticchio, f. Pedrielli, A. Reale, G. C. Righini, N. Robotti, W. Shea, i. talmi, A. tomadin, m. Zannoni, A. Zichichi Sommario 3 EDITORIALE / EDITORIAL 84 50 anni di laser. Tavola rotonda al XCVI Congresso Nazionale della SIF SCieNZA iN PRimO PIANO G. C. Righini 5 Quantum simulators and 86 Assemblea di ratifica delle elezioni quantum design delle cariche sociali della SIF per il R. fazio, A. tomadin triennio 2011-2013 10 La rivoluzione della plastica nel 87 African Physical Society settore fotovoltaico f. K. A. Allotey A. Di Carlo, A. Reale, t. m. Brown, 90 Nicola Cabibbo and his role in f. Brunetti elementary-particle theory Percorsi R. Gatto 23 The tabletop measurement of the News helicity of the neutrino 92 The Italian graduate profile survey L. Grodzins A. Cammelli 30 Giulio Racah (1909-1965): 96 Premio Fermi 2010 modern spectroscopy A. -
Michael Kühn Detlev Auvermann RARE BOOKS
ANTIQUARIAT 55Michael Kühn Detlev Auvermann RARE BOOKS 1 Rolfinck’s copy ALESSANDRINI, Giulio. De medicina et medico dialogus, libris quinque distinctus. Zurich, Andreas Gessner, 1557. 4to, ff. [6], pp. AUTOLYKOS (AUTOLYCUS OF PYTANE). 356, ff. [8], with printer’s device on title and 7 woodcut initials; a few annotations in ink to the text; a very good copy in a strictly contemporary binding of blind-stamped pigskin, the upper cover stamped ‘1557’, red Autolyci De vario ortu et occasu astrorum inerrantium libri dvo nunc primum de graeca lingua in latinam edges, ties lacking; front-fly almost detached; contemporary ownership inscription of Werner Rolfinck on conuersi … de Vaticana Bibliotheca deprompti. Josepho Avria, neapolitano, interprete. Rome, Vincenzo title (see above), as well as a stamp and duplicate stamp of Breslau University library. Accolti, 1588. 4to, ff. [6], pp. 70, [2]; with large woodcut device on title, and several woodcut diagrams in the text; title a little browned, else a fine copy in 19th-century vellum-backed boards, new endpapers. EUR 3.800.- EUR 4.200.- First edition of Alessandrini’s medical dialogues, his most famous publication and a work of rare erudition. Very rare Latin edition, translated from a Greek manuscript at the Autolycus was a Greek mathematician and astronomer, who probably Giulio Alessandrini (or Julius Alexandrinus de Neustein) (1506–1590) was an Italian physician and author Vatican library, of Autolycus’ work on the rising and setting of the fixed flourished in the second half of the 4th century B.C., since he is said to of Trento who studied philosophy and medicine at the University of Padua, then mathematical science, stars. -
Kepler and the Jesuits, Michael Walter Burke-Gaffney, S.J. (1944).Pdf
ixNM^KrnrFRi^ mji iiiNir*! CO c >KU\ ic»n \f» v Mftimioriiu'.t n ( < nice r O Mai mi v* Nf amtouvs LHrJUULI m nc. xwii § m m > z a H m3C jftaUISp m en C H theJESU CD BY M.W. BURKE - GAFFNEY ST. IGNATIUS LIBRARY »**,.* ^ » 980 T- PARK AVENUE / »naT,„, oh NEW YORK CITY 28 "«w Vowk Date Loaned ©23 IM ^0*0v&*0v&A&*&*&*&H&*&*&*&K&r&*&*.&>»&*'&*&*,O'*'&*-0*&*&* Kepler and the Jesuits ^^<^W^Jl^X^lt^>C^lC^X^X^K^>t^X^5<^X^X^K^X^X^X^X^X^l<^)t^l<^> "My thoughts are with the Dead; with them 1 live in long-past years, Their virtues love, their faults condemn, Partake their hopes and fears, And from their lessons seek and find Instruction with a humble mind." — SOUTHEY. M. W. BURKE-GAFFNEY, S.J. 'I measured the skies." Johann Kepler THE BRUCE PUBLISHING COMPANY MILWAUKEE Imprimi potest: T. J. Mullai-ly, S.J. Nihil obstat: H. B. Rjes, Censor librorum Imprimatur: + Moyses E. Kiley. Archiepiscopus Milwaukiensis Die 11 Aprilis. 1944 CONTENTS Page Chapte f 1 I Introducing Kepler II The Imperial Mathematician 15 III . 26 IV V . 60 VI Sunspots ..... • 71 VII Mercury in the Sun . 8s 9i WAR FORMAT VIII Heliocentric Hypothesis • This book is produced in complete accord with the Governinem regulations for the conservation of paper and other essential materials. IX X Aids to Astronomy . 117 XI The Last Chapter 129 Bibli Copyright. 1944 The Bruce Publishing Company Indej Printed in the United States of America CHAPTER I INTRODUCING KEPLER Johann Kepler was enjoying a studentship at the University of Tubingen when the Parodies, the Lutheran school at Graz, applied for a teacher of astronomy. -
First King of Rome Romulus Calendar 753 BC Martius (31 Days)
First King of Rome Second King of Rome Julius Caesar Pope Gregory XIII God and Jesus Christ Romulus Calendar Numa Calendar Julian Calendar Gregorian Calendar New Jerusalem Calendar 753 BC 715 BC 45 BC 1582 AD (The Present) Martius (31 days) Martius (31 days) Ianuarius (31 days) January (31 days) New Year Day 0/0 Leap Day 0/1 Aprilus (30 days) Aprilus (29 days) Februarius (28/29 days) February (28/29 days) March (30 days) Maius (31 days) Martius (31 days) March (31 days) Maius (31 days) April (31 days) Iunius (29 days) Aprilus (30 days) April (30 days) Iunius (30 days) May (31 days) May (30 days) Quintilus (31 days) Maius(31 days) June (30 days) Quintilus (31 days) June (30 days) Sextilus (29 days) Iunius (30 days) July (31 days) Sextilus (30 days) July (31 days) September (29 days) Iulius (31 days) August (30 days) August (31 days) September (30 days) October (31 days) Augustus (31 days) September (30 days) September (30 days) October (31 days) November (29 days) September (30 days) October (31 days) October (31 days) November (30 days) November (30 days) December (29 days) October (31days) November (30 days) December (30 days) December (30 days) Ianuarius (29 days) November (30 days) December (31 days) January (31 days) Winter day period Februarius (28 days) December (31 days) February (30 days) Notes: Notes: Notes: Notes: Notes: At some point between Year of Confusion in Martius (March) the Although the Gregorian On the New Jerusalem first month. New Year 715 BC and 45 BC the 46 BC had 445 days. -
The Curious Case of the Milankovitch Calendar
Hist. Geo Space Sci., 10, 235–243, 2019 https://doi.org/10.5194/hgss-10-235-2019 © Author(s) 2019. This work is distributed under the Creative Commons Attribution 4.0 License. The curious case of the Milankovitch calendar Nenad Gajic Faculty of Technical Sciences, Trg Dositeja Obradovica´ 6, 21000 Novi Sad, Serbia Correspondence: Nenad Gajic ([email protected]) Received: 20 May 2019 – Revised: 11 August 2019 – Accepted: 23 August 2019 – Published: 26 September 2019 Abstract. The Gregorian calendar, despite being more precise than the Julian (which now lags 13 d behind Earth), will also lag a day behind nature in this millennium. In 1923, Milutin Milankovitch presented a calen- dar of outstanding scientific importance and unprecedented astronomical accuracy, which was accepted at the Ecumenical Congress of Eastern Orthodox churches. However, its adoption is still partial in churches and nonex- istent in civil states, despite nearly a century without a better proposition of calendar reform in terms of both precision and ease of transition, which are important for acceptance. This article reviews the development of calendars throughout history and presents the case of Milankovitch’s, explaining its aims and methodology and why it is sometimes mistakenly identified with the Gregorian because of their long consonance. Religious as- pects are briefly covered, explaining the potential of this calendar to unite secular and religious purposes through improving accuracy in both contexts. 1 Introduction global scientific project called “Climate: Long range Inves- tigation, Mapping, and Prediction” (CLIMAP, 1981), which aimed to reconstruct the worldwide climate history through Milutin Milankovic´ (1879–1958; see Fig. -
Villa Mondragone 19Th-20Th September
Villa Mondragone 19th-20th September. Vortical Structures and Wall Turbulence Paolo Orlandi: a vortical and turbulent life VILLA MONDRAGONE a voyage through the centuries between Science and Art VILLA MONDRAGONE A beautiful Villa, with a park of 18 hectares, owned by the University of Rome “Tor Vergata” and now used for Conferences and events. It is located in Monte Porzio Catone, on the hills SE of Rome at about 400m a.s.l. and 20Km from the city centre THE NAME “Mons Draconis” (Mountain of the Dragon) The name refers to the location on the top of the hill (Mons) and to the dragon (Draconis) part of the family crest of the noble family Boncompagni- Ludovisi to which Pope Gregorius XIII belonged (although the Villa never belonged to the Pope) A BIT OF HISTORY Already in the period of the ancient Romans the rich families used to move for the Summer on the hills around Rome (to avoid the humidity and the malaria of the flooded areas downtown). In the II century a.C. two brothers (senators) Sesto Quintilio Condiano and Sesto Quintilio Valerio Massimo built a villa in the same position and of the same size as Villa Mondragone (although with a different orientation) (The two senators were killed in 182 a.C. after an accuse of conspiracy against the Emperor Commodo) During the decline of the Roman Empire the villa was abandoned and only ruins were left in the 16th century A BIT OF HISTORY … in the XVI century the noble families continued the tradition of leaving Rome for the Summer The family Farnese had built “Villa Angelina”. -
Lesson 9. Chronology, Daniel Flaut.Pdf
Lesson 9. Chronology Learning tasks: by completing this unit of study, the student will be able to: ¾ Define Chronology and to highlight the key moments in its evolution as science. ¾ Identify main elements of timeline (day, hour, week, month, year). ¾ Retain some elementary notions about the calendar. I. Definition; The evolution of Chronology as science Chronology from Latin chronologia, from Ancient Greek χρόνος, chronos = time, and λογία, logia) is the Auxiliary Science of History which deal with the measuring and dividing of time, therefore with accurate dating of historical events to determine their sequence. Chronology has two major branches: Astronomical Chronology, a technical method of dating events or artifacts that are associated with astronomical phenomena, and Historical Chronology, to achieve timelines: national, universal, of different institutions and of their leaders, of various historical events. There were two systems to highlight the time: the astronomical system and the civil system, of which there were some differences. But, both systems were based on revolution movements of the Earth, the Moon and Sun. In Antiquity, historiography has shown a constant concern for establishing accurate data of events narrated, but made after the dating system used at that time. In XVXVIII centuries, Chronology make important steps in its evolution as a scientific discipline. The problematic of Chronology began with the controversy between Joseph Justus Scaliger (August 5, 1540, Agen‐January 21, 1609, Leiden) and Denis Pétau (August 21, 1583 – December 11, 1652), which gave to Benedictines the opportunity to undertake the difficult task to clarify the research field of Chronology. They needed a long time until to draft critical chronological lists and to clarify old dating systems. -
On the Gregorian Revision of the Julian Calendar Jacques Dutka
On the Gregorian Revision of the Julian Calendar Jacques Dutka 1. Introduction Despite sporadic attempts to reform it that are still periodically advanced, the Gregorian calendar is now After a history of centuries of attempts within the accepted, at least for civil matters, in virtually every Roman Catholic Church to reform the yearly calendar . country. established by Julius Caesar, the decisive step was Many attempts since 1582 have been made to ex taken when Pope Gregory XIII replaced the Julian cal plain the curious 365 97/400 days for the mean Grego endar by a revision. The first part of the revision con rian year. Eminent writers have offered explanations sisted of omitting 10 days from the year 1582 so that of varying degrees of ingenuity that are simply wrong. Thursday, October 4, was followed by Friday, October The primary purpose of this article is to present the 15. The second part of the revision, of far more lasting available evidence for this number and to permit the significance, was to modify the Julian scheme by reader to judge its adequacy. which every numbered year, not divisible by four, Since the Gregorian calendar is based on the Julian consisted of 365 days, while every year divisible by calendar, which, in turn, depends on the Egyptian cal four was a leap year, consisting of 366 days, so that endar adapted to the Roman system of time measure the mean Julian year is 365% days. The modification ment, it is necessary first to develop the history of the retained the Julian scheme except for centurial years calendar and some of the associated problems that fi those ending with two zeros. -
Calendar Curiosities for 29 February Transcript
Calendar Curiosities for 29 February Transcript Date: Monday, 29 February 2016 - 6:00PM Location: Museum of London 29 February 2016 Calendar Curiosities for 29 February Professor Tony Mann Good evening, and welcome to what I can confidently say is the first Gresham College lecture to have been delivered on 29 February for at least four years. In this lecture I'm going to explore why we have an extra day in February every four years (with occasional exceptions), and to present some of the consequences of this calendrical curiosity. As a nice piece of mathematics, I will show you my favourite way of mentally calculating the day of the week on which any date falls in any year. In the course of this talk we will see how mathematics and politics can intersect, and learn about some of the consequences of our attempts to tidy up the minor inconvenience caused by the clockwork of our solar system failing to fit into neat round-number numerical relationships. There are of course traditions associated with February 29, notably that it is the one day of the year on which it is permissible for a woman to propose marriage to a man. In Ireland, a man rejecting such a proposal had to buy the disappointed woman a silk gown or a fur coat. Apparently this was the result of an agreement between St Brigid and St Patrick. Elsewhere in the UK the requirement was that he give her twelve pairs of gloves, perhaps to enable her to hide the ringlessness of her finger. -
History of Science
ALOYSIUS LILIUS AUTHOR OF THE GREGORIAN REFORM OF THE CALENDAR Francesco Vizza* Abstract During the 16th century the disagreement between the dates of the Julian calendar, that had been in use since 46 BC and the vernal equinox, necessitated a correction to the computational rules used to regulate the flow of time. This was a very difficult task as it was necessary to resynchronize the civil time with celestial indicators, maintaining a lien adamant: the date of the vernal equinox, conventionally fixed perennially on March 21. In fact, during the Nicaea Council (325) the celebration of Easter was fixed on the first Sunday following the XIV Moon (Full Moon) belonging to the first month after the vernal equinox. Aloysius Lilius, a physician, astronomer and mathematician, using imprecise astronomical data contained in tables from three centuries before, was able to elaborate a calendar that has stood the test of time. By the use of two equations he was able to synchronize the solar and lunar cycles and to develop a useful tool, named the epact cycle, to determine without uncertainty the Easter date. Furthermore, the Lilian method offers the possibility to correct the calendar according to the variation of the tropic year during time. Unfortunately, only a few details of his personal life are known. Indeed, he has left only a few faint traces in public or private archives, so that today his name is almost unknown. In this paper are reported the few details known of his life and a reconstruction of his plan for the calendar reform. * Institute of Chemistry of Organometallic Componds (ICCOM-CNR) Via Madonna del Piano 10, 50019 Sesto Fiorentino (Italy), E-mail: [email protected] 1 1. -
Gregorian Calendar - Wikipedia
12/2/2018 Gregorian calendar - Wikipedia Gregorian calendar The Gregorian calendar is internationally the most widely used civil calendar.[1][2][Note 1] It is named after Pope Gregory 2018 in various calendars XIII, who introduced it in October 1582. Gregorian 2018 [3] It was a refinement to the Julian calendar involving an approximately 0.002% correction in the length of the calendar calendar MMXVIII year. The motivation for the reform was to stop the drift of the calendar with respect to the equinoxes and solstices— Ab urbe 2771 particularly the northern vernal equinox, which helps set the date for Easter. Transition to the Gregorian calendar would condita restore the holiday to the time of the year in which it was celebrated when introduced by the early Church. The reform was Armenian 1467 adopted initially by the Catholic countries of Europe. Protestants and Eastern Orthodox countries continued to use the calendar ԹՎ ՌՆԿԷ traditional Julian calendar and adopted the Gregorian reform, one by one, after a time, at least for civil purposes and for the sake of convenience in international trade. The last European country to adopt the reform was Greece, in 1923. Many (but Assyrian 6768 not all) countries that have traditionally used the Julian calendar, or the Islamic or other religious calendars, have come to calendar adopt the Gregorian calendar for civil purposes. Bahá'í 174–175 calendar The Gregorian reform contained two parts: a reform of the Julian calendar as used prior to Pope Gregory XIII's time, and a reform of the lunar cycle used by the Church with the Julian calendar to calculate the date of Easter. -
Little-Known Facts About the Gregorian Calendar
RESEARCH YOUR TOPIC SPEECH To be delivered Wednesday, March 30, 2016 Little-Known Facts About the Gregorian Calendar Mr./Madame Toastmaster, fellow Toastmasters, and esteemed guests: Thirty days has September, April, June, and November. All the rest have thirty-one, except for February, which has twenty-eight and sometimes twenty-nine. I’m sure all of you have heard this rhyme before. But have you ever wondered what’s up with the whole February twenty-eight or twenty-nine thing? Or more generally, what gives rise to the dates listed in your almanac, like Easter Sunday? To get to the bottom of these things, we need to understand… (*pause*) …the Gregorian calendar. Specifically, today we are going to look at three questions: 1) Who was Greg and why did he care about a calendar? 2) How is the date of Easter calculated? 3) What day is it and how do we know? Let’s take it from the top. Greg, also known as Pope Gregory XIII, was the leader of the Catholic Church from 1572 until 1585. He was known for his simplicity, integrity, and brilliance. Now, being a wise leader, he listened to what the best scientists of the day, namely Aloysius Lilius and Christopher Clavius, were telling him about their work. Specifically, those astronomers realized that the length of a year was actually 365 days, 5 hours, and 49 minutes, rather than the 365 days and 6 hours that the current Julian calendar supposed. Those 11 minutes may not seem like much, but over the last few centuries, the alignment of the seasons to the months had slipped by about 11 days, which started to turn heads.