Ancient Greek Technology
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
From Ancient Greece to Byzantium
Proceedings of the European Control Conference 2007 TuA07.4 Kos, Greece, July 2-5, 2007 Technology and Autonomous Mechanisms in the Mediterranean: From Ancient Greece to Byzantium K. P. Valavanis, G. J. Vachtsevanos, P. J. Antsaklis Abstract – The paper aims at presenting each period are then provided followed by technology and automation advances in the accomplishments in automatic control and the ancient Greek World, offering evidence that transition from the ancient Greek world to the Greco- feedback control as a discipline dates back more Roman era and the Byzantium. than twenty five centuries. II. CHRONOLOGICAL MAP OF SCIENCE & TECHNOLOGY I. INTRODUCTION It is worth noting that there was an initial phase of The paper objective is to present historical evidence imported influences in the development of ancient of achievements in science, technology and the Greek technology that reached the Greek states from making of automation in the ancient Greek world until the East (Persia, Babylon and Mesopotamia) and th the era of Byzantium and that the main driving force practiced by the Greeks up until the 6 century B.C. It behind Greek science [16] - [18] has been curiosity and was at the time of Thales of Miletus (circa 585 B.C.), desire for knowledge followed by the study of nature. when a very significant change occurred. A new and When focusing on the discipline of feedback control, exclusively Greek activity began to dominate any James Watt’s Flyball Governor (1769) may be inherited technology, called science. In subsequent considered as one of the earliest feedback control centuries, technology itself became more productive, devices of the modern era. -
Volgei Nescia: on the Paradox of Praising Women's Invisibility*
Matthew Roller Volgei nescia: On the Paradox of Praising Women’s Invisibility* A funerary plaque of travertine marble, originally from a tomb on the Via Nomentana outside of Rome and dating to the middle of the first century BCE, commemorates the butcher Lucius Aurelius Hermia, freedman of Lucius, and his wife Aurelia Philematio, likewise a freedman of Lucius. The rectangular plaque is divided into three panels of roughly equal width. The center panel bears a relief sculpture depicting a man and woman who stand and face one another; the woman raises the man’s right hand to her mouth and kisses it. The leftmost panel, adjacent to the male figure, is inscribed with a metrical text of two elegiac couplets. It represents the husband Aurelius’ words about his wife, who has predeceased him and is commemorated here. The rightmost panel, adjacent to the female figure, is likewise inscribed with a metrical text of three and one half elegiac couplets. It represents the wife Aurelia’s words: she speaks of her life and virtues in the past tense, as though from beyond the grave.1 The figures depicted in relief presumably represent the married individuals who are named and speak in the inscribed texts; the woman’s hand-kissing gesture seems to confirm this, as it represents a visual pun on the cognomen Philematio/Philematium, “little kiss.”2 This relief, now in the British Museum, is well known and has received extensive scholarly discussion.3 Here, I wish to focus on a single phrase in the text Aurelia is represented as speaking. -
Mechanical Miracles: Automata in Ancient Greek Religion
Mechanical Miracles: Automata in Ancient Greek Religion Tatiana Bur A thesis submitted in fulfillment of the requirements for the degree of Master of Philosophy Faculty of Arts, University of Sydney Supervisor: Professor Eric Csapo March, 2016 Statement of Originality This is to certify that to the best of my knowledge, the content of this thesis is my own work. This thesis has not been submitted for any degree or other purposes. I certify that the intellectual content of this thesis is the product of my own work and that all the assistance received in preparing this thesis and sources have been acknowledged. Tatiana Bur, March 2016. Table of Contents ACKNOWLEDGMENTS ....................................................................................................... 1 A NOTE TO THE READER ................................................................................................... 2 INTRODUCTION ................................................................................................................ 3 PART I: THINKING ABOUT AUTOMATION .......................................................................... 9 CHAPTER 1/ ELIMINATING THE BLOCAGE: ANCIENT AUTOMATA IN MODERN SCHOLARSHIP ................. 10 CHAPTER 2/ INVENTING AUTOMATION: AUTOMATA IN THE ANCIENT GREEK IMAGINATION ................. 24 PART II: AUTOMATA IN CONTEXT ................................................................................... 59 CHAPTER 3/ PROCESSIONAL AUTOMATA ................................................................................ -
Greek Architecture
STATE OF THE DISCIPLINE Greek Architecture BARBARA A. BARLETTA Abstract however, that the list of works cited, which is provided The study of Greek architecture grew out of the me- at the end of this article, will assist the reader in locat- ticulous recording of buildings and their components by ing those contributions. 18th- and 19th-century investigators. Although the aims have changed, with an increasing emphasis on historical history of the discipline and social context, the basic methods of documentation remain the same. This essay traces the history of the disci- The study of Greek architecture has evolved consid- pline as a background to modern approaches, geographic erably from its origins in the 18th century, but some emphases, and new perspectives. It surveys the work of of the basic principles have remained the same. It was archaeological schools and conference bodies, followed initiated by architects seeking to preserve a record of by general studies of architecture and its components as monuments of the past and to use them as a source of well as individual building forms and complexes. A focus is placed on recent literature, from 1980 to the present, “good taste” in their own times. They were already fa- and on books rather than articles.* miliar with buildings in Rome, but by the 18th century, their interests had shifted to Greece. Stuart and Revett state the reasons for this shift in their 1748 applica- introduction tion for financing for what would be the first project Many contributions have been made to the field sponsored by the Society of Dilettanti. -
Heritage Interpretation Facilities in the Region of Central Macedonia
Heritage Interpretation Facilities in the Region of Central Macedonia Project Evdoxia Dermedesioti partner Mariana Skoularika logo 19 September 20173rd Inter-Regional Thematic Workshop, Sibiu, Romania SHARING CULTURE INVOLVING PEOPLE COMMUNICATE 2 MUSEUMS HISTORIC SITES HERITAGE TOURISM SITES PARKS and more……. 3 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 1. Short explanatory texts, in terms of captions, for each exhibit 4 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 2. Supervisory material (texts, photographs, drawings) with information relating to wider exhibition or thematic sections 5 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 3. Mock ups 6 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 4. Leaflets in different languages 7 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 5. Printed catalogs for the permanent, periodical and hosted exhibitions of the AMG, with scientific studies on the subject of the exhibition and a full list of exhibits. 8 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 6. Videos 9 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 6. Multimedia applications (games, interactive applications) 10 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 7. Web Sites 11 Heritage Interpretation Facilities in the main Cultural Attractions / Museums 8. Social Media 12 Heritage Interpretation -
Technē and Method in Ancient Artillery Construction: the Belopoeica of Philo of Byzantium
Mark J. Schiefsky Technē and Method in Ancient Artillery Construction: The Belopoeica of Philo of Byzantium Abstract: In his Belopoeica, Philo of Byzantium presents artillery construction (belopoiikē) as a kind of expertise or technē that possesses a standardized meth- od for attaining success. I describe this method, which consists of a set of pro- cedures and rules that are systematically organized on the basis of general prin- ciples, and discuss Philo’s claim that its discovery depended crucially on experience (peira). In the second part of the Belopoeica Philo presents several designs for artillery engines that allegedly improve on the standard method. I discuss these designs, which draw on both natural philosophy and theoretical mechanics, and conclude with a brief attempt to place Philo’s picture of artillery construction as a technē involving both experience and theory in the context of roughly contemporary views of technē in philosophy and medicine. Introduction From the fourth century b.c. to the end of Antiquity, the discipline of artillery construction (belopoiikē) was one of the most important and highly developed types of professional expertise (technē) in the ancient Greco-Roman world.¹ Start- ing from the traditional bow, Greek engineers devised a wide array of mechanical shooting devices, weapons which had a significant impact on the course of his- tory. The development of this technology was fostered by royal patronage and carried out by communities of practitioners working in major cultural and polit- ical centers such as Alexandria and Rhodes. These practitioners had a high sense As is well known, the Greek term technē has no single English equivalent. -
Sennacherib, Archimedes, and the Water Screw the Context of Invention in the Ancient World
Sennacherib, Archimedes, and the Water Screw The Context of Invention in the Ancient World STEPHANIE DALLEY and JOHN PETER OLESON This article will present the cases for and against Archimedes as the origi- nal inventor of the most striking and famous device attributed to him, the water screw. It takes the form of a case study that focuses as much on the context and motives for the invention as on the possible inventor himself. In brief, an Archimedean water screw consists of a cylinder containing sev- eral continuous helical walls that, when the entire cylinder is rotated on its longitudinal axis, scoop up water at the open lower end and dump it out the upper end. Both Aage Drachmann and John Oleson have summarized the literary and archaeological evidence from the classical world suggesting that Archimedes (287–212 B.C.) was the first person to design and construct a mechanical water-raising screw, and they accept him as the inventor.1 Stephanie Dalley, on the other hand, reinterpreting a passage of cuneiform Akkadian and a statement by Strabo, has proposed that the water screw was Dr. Dalley is Shillito Research Fellow in Assyriology at the Oriental Institute and Somerville College, University of Oxford. She has published primary editions of cunei- form texts from excavations in Iraq and Syria and from museums in Britain, as well as specialized studies and more general books. She has translated all the Assyrian texts used in this article. Dr. Oleson is professor of Greek and Roman Studies at the University of Victoria, British Columbia. His areas of fieldwork and research include ancient hydraulic technology, Roman harbors and their construction, and the Roman Near East. -
Orientations of Thirteen Apollo´S Temples: a Gnomonic Perspective
Annals of Archaeology Volume 1, Issue 1, PP 1-12 Orientations of Thirteen Apollo´s Temples: A Gnomonic Perspective Raul Perez-Enriquez1, Papaspirou Panagiotis2, Xenophon Moussas3 1Departamento de Fisica, Universidad de Sonora, Hermosillo, Mexico 2Department of Astrophysics, National and Kapodistrian University of Athens, Athens, Greece 3Department of Astrophysics, National and Kapodistrian University of Athens, Athens, Greece *Corresponding Author: Raul Perez-Enriquez, Departamento de Fisica, Universidad de Sonora, Hermosillo, Mexico, [email protected] ABSTRACT Apollo, the Sun God, is one of the most prominent deities in the Ancient Greek religion. The temples and the oracles dedicated to the cult of Apollo correlate the selection of their geographical site with their special orientation, as based on ancient astronomical practices of symbolic and ritual importance. By studying the Ancient Greek temples, as for example the temples of Apollo, various researchers in the field of Archaeoastronomy, as for example, Ranieri discovered their special, non-random orientation. In this paper the special orientations of thirteen temples of Apollo are studied by the application of a novel criterion, the criterion of the platonic gnomonic factor (fgp). The majority of the temples have special arithmetic values of their corresponding fgp, and this result leads us to suggest a hypothetical application of a methodology, relating to the value of the gnomonic factor and the orientation of the temple; implemented at the time of the definition of its construction. We find that for six out of thirteen temples of Apollo, a correlation between the gnomonic factors implied by the site selected for them, their specific orientation as well as the size of their basement, exists. -
Decoding the Antikythera Mechanism
DECODING THE ANTIKYTHERA MECHANISM CULTURAL FOUNDATION SCIENCE AND TECHNOLOGY OF THE NATIONAL BANK OF GREECE IN ANCIENT GREECE INTERNATIONAL CONFERENCE 30th NOVEMBER AND 1st DECEMBER 2006 ATHENS DECODING THE ANTIKYTHERA MECHANISM In 1901 a group of sponge divers from the island of Syme discovered off the island of Antikythera a huge shipwreck with many statues, including the beautiful “Antikythera Youth” and other treasures. Amongst the numerous objects they recovered a curious as much as mysterious clock-like mechanism, damaged, mutilated, calcified and cor- roded, as it has been in the sea for longer than 20 centuries. The first studies showed that this precious item was a complex astronomical instrument, the oldest instrument with scales, initially named the “Antikythera Astrolabe”, but much more complex than any other known astrolabe. It was later renamed as the “Antikythera Mechanism”. Several studies have been performed during the 20th century by J. N. Svoronos, G. Stamires, V. Stais, R. T. Gunther, R. Rhediades, A. Rhem, K. Rados, J. Theophanides (who studied carefully and constructed the first working clockwork-like model of an advanced astrolabe), K. Maltezos and Ch. Karouzos. A breakthrough came with the use of radiography (X-rays and Thallium 170 radiation) by Derek de Solla Price and Ch. Karakalos, and later by M. T. Wright, A. Bromley and H. Mangou, who used tomography and furthered our understanding of the Mechanism. As new very advanced techniques become available new ideas emerged that led to the formation of the international team of the Antikythera Mechanism Research Pro- ject (University of Cardiff, University of Athens, University of Thessaloniki) who got a substantial research grant from the Leverhulme Trust, and in collaboration with the X-∆ek Systems (who developed powerful microfocus X-ray computed tomography) and Hewlett-Packard (using reflectance imaging to enhance surface details on the Antikythera Mechanism), The National Archeological Museum and under the aus- pices of the Ministry of Culture (Dr. -
6.12. Unidentified Male Statue Base Showing Signature of Glykon of Dokimeion from Antonine Nymphaeum at Sagalassos
6.12. Unidentified male statue base showing signature of Glykon of Dokimeion from Antonine nymphaeum at Sagalassos. Photo: author. 6.13. Map of Pisidian Antioch environs. Barrington Atlas 2000. 377 6.14. Pisidian Antioch urban plan. Courtesy Gazda and Ng 2011. 378 6.15. Pisidian Antioch limestone quarries. Photo: author. 6.16. Head of Augustus from imperial cult complex at Pisidian Antioch (Istanbul Archaeological Museum). Photo: author. 379 6.17. Cornelia Antonia from Mên Askaênos sanctuary at Pisidian Antioch (Istanbul Archaeological Museum). Photo: author. 380 6.18. Zeus statue signed by Menandros from Dokimeion at Pisidian Antioch. Photo: author. 381 TABLES 382 3.1. Aphrodisias Regional Survey: Isotopic results from marble quarry samples. 383 3.2. Aphrodisias Regional Survey: Archaeological samples. 384 385 386 4.1. Measurements of monolithic columns from Dokimeion. 387 5.1. Archaeological samples from Terrace House 2/31 in Ephesus. 388 BIBLIOGRAPHY J. Adam, Roman Building (London 1994). G. Adornato (ed.), Scolpire il Marmo: Importazioni, Artisti Itineranti, Scuole Artistiche nel Mediterraeneo Antico (Milan 2010). W. Alzinger, “Ritzzeichnungen in den Marmorbrüchen von Ephesos,” Jahreshefte des Österreichischen Archäologischen Instituts in Wien 48 (1966–1967) 61-72. J. Anderson, Roman Architecture and Society (Baltimore 1997). A. Andreoli, F. Berti, L. Lazzarini, R. Benoit, “New Contributions on Marmor Iassense,” in L. Lazzarini (ed.), ASMOSIA VI (2002) 13-18. F. Antonelli, L. Lazzarini, S. Cancelliere, D. Dessandier, “Minero-petrographic and Geochemical Characterization of ‘Greco Scritto’ Marble from Cap de Garde, near Hippo Regius (Annaba, Algeria),” Archaeometry 51.3 (2009) 351-365. _________, L. Lazzarini, and S. Cancelliere, “On the White and Coloured Marbles of the Roman Town of Cuicil (Djemila, Algeria), Archaeometry 54.2 (2010) 575-596. -
Principles of Energy Conversion Part 5
Principles of Energy Conversion Part 5. The Rise of Heat Engines January 23, 2018 10 Historical Events in the Development of Fluid Power3 10.1 Hydraulis........................................5 10.2 Magdeburg Spheres..................................6 10.3 Bone Digesters and the Safety Valve........................7 10.4 Aeolipile........................................8 11 Atmospheric Engines 11 11.1 Savory's Engine - \The Miner's Friend"...................... 11 11.2 Newcomen's Engine.................................. 14 11.3 Watt's Engine..................................... 16 11.4 Evan's Engine..................................... 17 11.5 End of Early Steam Engine Development...................... 19 11.6 Schematics of Major Advances in Atmospheric Engines............. 20 References 21 Department of Mechanical Engineering { Engineering Mechanics Michigan Technological University Copyright © 2018 Article 10 Historical Events in the Development of Fluid Power Expansion of a hot, compressed fluid to a cool, uncompressed fluid is arguably the most common method of converting thermal energy (heat) into mechanical energy (work). Examples of this conversion include piston-cylinder engines as well as gas or steam turbines. This type of energy conversion developed into modern engineering thermodynamics through a rather tortuous path. The history of modern engineering thermodynamics begins in medieval Europe. There are earlier accounts of fluid power developments in ancient Greece, Rome, China, India, Turkey, Persia, and other civilizations. -
The Oxford Handbook of Engineering and Technology in the Classical World Edited by J
The Oxford Handbook of Engineering and Technology in the Classical World edited by J. P. Oleson Oxford: Oxford University Press, 2008. Pp. xviii + 870. ISBN 978--0-- 19--518731--1.Cloth $150.00 Reviewed by T. E. Rihll University of Wales, Swansea [email protected] This book was designed ‘to survey the role of technology in the Greek and Roman cultures and their respective technological accomplish- ments, from approximately the eighth century BC through the fifth century AD’ [3]. More specifically, contributors were asked to provide critical summaries of what the ancients achieved in particular areas, to chart the development of their technology in these cultures over the period in question, to consider the historiography of important issues in their area, and ‘to help put an end to the myth of a ‘techno- logical blockage’ in the classical cultures’ [6]. The book is not meant to be a compendium of all technological procedures, devices, and machines in the classical world [6]; but the title and size raise the ex- pectation that it will serve as an introduction to the field as a whole, suitable both for undergraduate students and academics new to it. Generally that expectation is realized, though, as usual with this sort of volume, the level at which chapters are pitched varies considerably and some contributors stick to their brief better than others. To what extent does this volume achieve its three principal aims—to summarize what the ancients achieved, to explain how their technologies changed through antiquity, and to explode the myth of technological blockage? The answer turns out to be bound up with how far contributors have engaged with those aims.