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Migracijske Teme 4/1988
Migracijske teme 15 (1999), 1-2: 63-153 UDK: 809.45-0 Izvorni znanstveni rad Primljeno: 17. 11. 1998. Paolo Agostini University of Padova [email protected] LANGUAGE RECONSTRUCTION – APPLIED TO THE URALIC LANGUAGES* SUMMARY After pointing out the shortcomings and methodological weakness of the general theory of linguistic reconstruction, the author disputes the alleged antiquity of Uralic. Proto-Uralic as recon- structed by the scholars seems to be the sum of a set of features belonging to several distinct language families. The paper examines a number of lexical concordances with historically attested languages and comes to the conclusion that the Proto-Uralic word-stock is the result of a sum of borrowings that took place from the most disparate languages: Balto-Slavic, Old Swedish, several Turkic dialects, Mongolic, Tunguz, Aramaic, Hebrew, Arabic, late Middle Persian dialects, Byzantine Greek and Latin. Yet, other languages may also come into account: Chinese, Caucasian languages as well as lan- guages unknown in present day are possible candidates. A large number of bases of the Uralic word- stock can be easily identified by following a few phonological constraints. The linguistic features of the Uralic daughter-languages seem to show that they originated from a pidgin language spoken along the merchant routes that connected the Silk Road to North- and East-European trade. It is a well-known phenomenon that sometimes, when groups of people speaking different languages come into contact for the first time, a new restricted language system (lingua franca or pidgin) comes into being in order to cater to essential common needs. -
CULTURAL HERITAGE in MIGRATION Published Within the Project Cultural Heritage in Migration
CULTURAL HERITAGE IN MIGRATION Published within the project Cultural Heritage in Migration. Models of Consolidation and Institutionalization of the Bulgarian Communities Abroad funded by the Bulgarian National Science Fund © Nikolai Vukov, Lina Gergova, Tanya Matanova, Yana Gergova, editors, 2017 © Institute of Ethnology and Folklore Studies with Ethnographic Museum – BAS, 2017 © Paradigma Publishing House, 2017 ISBN 978-954-326-332-5 BULGARIAN ACADEMY OF SCIENCES INSTITUTE OF ETHNOLOGY AND FOLKLORE STUDIES WITH ETHNOGRAPHIC MUSEUM CULTURAL HERITAGE IN MIGRATION Edited by Nikolai Vukov, Lina Gergova Tanya Matanova, Yana Gergova Paradigma Sofia • 2017 CONTENTS EDITORIAL............................................................................................................................9 PART I: CULTURAL HERITAGE AS A PROCESS DISPLACEMENT – REPLACEMENT. REAL AND INTERNALIZED GEOGRAPHY IN THE PSYCHOLOGY OF MIGRATION............................................21 Slobodan Dan Paich THE RUSSIAN-LIPOVANS IN ITALY: PRESERVING CULTURAL AND RELIGIOUS HERITAGE IN MIGRATION.............................................................41 Nina Vlaskina CLASS AND RELIGION IN THE SHAPING OF TRADITION AMONG THE ISTANBUL-BASED ORTHODOX BULGARIANS...............................55 Magdalena Elchinova REPRESENTATIONS OF ‘COMPATRIOTISM’. THE SLOVAK DIASPORA POLITICS AS A TOOL FOR BUILDING AND CULTIVATING DIASPORA.............72 Natália Blahová FOLKLORE AS HERITAGE: THE EXPERIENCE OF BULGARIANS IN HUNGARY.......................................................................................................................88 -
Three Hundred Years of Assaying American Iron and Iron Ores
Bull. Hist. Chem, 17/18 (1995) 41 THREE HUNDRED YEARS OF ASSAYING AMERICAN IRON AND IRON ORES Kvn K. Oln, WthArt It can reasonably be argued that of all of the industries factors were behind this development; increased pro- that made the modern world possible, iron and steel cess sophistication, a better understanding of how im- making holds a pivotal place. Without ferrous metals purities affected iron quality, increased capital costs, and technology, much of the modem world simply would a generation of chemically trained metallurgists enter- not exist. As the American iron industry grew from the ing the industry. This paper describes the major advances isolated iron plantations of the colonial era to the com- in analytical development. It also describes how the plex steel mills of today, the science of assaying played 19th century iron industry serves as a model for the way a critical role. The assayer gave the iron maker valu- an expanding industry comes to rely on analytical data able guidance in the quest for ever improving quality for process control. and by 1900 had laid down a theoretical foundation for the triumphs of steel in our own century. 1500's to 1800 Yet little is known about the assayer and how his By the mid 1500's the operating principles of assay labo- abilities were used by industry. Much has been written ratories were understood and set forth in the metallurgi- about the ironmaster and the furnace workers. Docents cal literature. Agricola's Mtll (1556), in period dress host historic ironmaking sites and inter- Biringuccio's rthn (1540), and the pret the lives of housewives, miners, molders, clerks, rbrbühln (Assaying Booklet, anon. -
Beginnings of Counting and Numbers Tallies and Tokens
Beginnings of Counting and Numbers Tallies and Tokens Picture Link (http://www.flickr.com/photos/quadrofonic/834667550/) Bone Tallies • The Lebombo Bone is a portion of • The radius bone of a wolf, a baboon fibula, discovered in the discovered in Moravia, Border Cave in the Lebombo Czechoslovakia in 1937, and mountains of Swaziland. It dates dated to 30,000 years ago, has to about 35,000 years ago, and fifty‐five deep notches carved has 29 distinct notches. It is into it. Twenty‐five notches of assumed that it tallied the days of similar length, arranged in‐groups a lunar month. of five, followed by a single notch twice as long which appears to • terminate the series. Then Picture Link starting from the next notch, also (http://www.historyforkids.org/learn/africa/science/numbers.htm) twice as long, a new set of notches runs up to thirty. • Picture link (http://books.google.com/books?id=C0Wcb9c6c18C&pg=PA41&lpg=PA41 &dq=wolf+bone+moravia&source=bl&ots=1z5XhaJchP&sig=q_8WROQ1Gz l4‐6PYJ9uaaNHLhOM&hl=en&ei=J8D‐ TZSgIuPTiALxn4CEBQ&sa=X&oi=book_result&ct=result&resnum=4&ved=0 CCsQ6AEwAw) Ishango Bone • Ishango Bone, discovered in 1961 in central Africa. About 20,000 years old. Ishango Bone Patterns • Prime 11 13 17 19 numbers? • Doubling? 11 21 19 9 • Multiplication? • Who knows? 3 6 4 8 10 5 5 7 Lartet Bone • Discovered in Dodogne, France. About 30,000 years old. It has various markings that are neither decorative nor random (different sets are made with different tools, techniques, and stroke directions). -
Wood Identification and Chemistry' Covers the Physicalproperties and Structural Features of Hardwoods and Softwoods
11 DOCUMENT RESUME ED 031 555 VT 007 853 Woodworking Technology. San Diego State Coll., Calif. Dept. of Industrial Arts. Spons Agency-Office of Education (DHEA Washington, D.C. Pub Date Aug 68 Note-252p.; Materials developed at NDEA Inst. for Advanced Studyin Industrial Arts (San Diego, June 24 -Au9ust 2, 1968). EDRS Price MF -$1.00 He -$13.20 Descriptors-Curriculum Development, *Industrial Arts, Instructional Materials, Learning Activities, Lesson Plans, Lumber Industry, Resource Materials, *Resource Units, Summer Institutes, Teaching Codes, *Units of Study (Sublect Fields), *Woodworking Identifiers-*National Defense Education Act TitleXIInstitute, NDEA TitleXIInstitute, Woodworking Technology SIX teaching units which were developed by the 24 institute participantsare given. "Wood Identification and Chemistry' covers the physicalproperties and structural features of hardwoods and softwoods. "Seasoning" explainsair drying, kiln drying, and seven special lumber seasoning processes. "Researchon Laminates" describes the bending of solid wood and wood laminates, beam lamination, lamination adhesives,. andplasticlaminates."Particleboard:ATeachingUnitexplains particleboard manufacturing and the several classes of particleboard and theiruses. "Lumber Merchandising" outhnes lumber grades andsome wood byproducts. "A Teaching Unitin Physical Testing of Joints, Finishes, Adhesives, and Fasterners" describes tests of four common edge pints, finishes, wood adhesives, and wood screws Each of these units includes a bibhography, glossary, and student exercises (EM) M 55, ...k.",z<ONR; z _: , , . "'zr ss\ ss s:Ts s , s' !, , , , zs "" z' s: - 55 Ts 5. , -5, 5,5 . 5, :5,5, s s``s ss ' ,,, 4 ;.< ,s ssA 11111.116; \ ss s, : , \s, s's \ , , 's's \ sz z, ;.:4 1;y: SS lza'itVs."4,z ...':',\\Z'z.,'I,,\ "t"-...,,, `,. -
Smelting Iron from Laterite: Technical Possibility Or Ethnographic Aberration?
Smelting Iron from Laterite: Technical Possibility or Ethnographic Aberration? T. O. PRYCE AND S. NATAPINTU introduction Laterites deposits (orlateriticsoilsastheyarealsocalled)arefrequently reported in Southeast Asia, and are ethnographically attested to have been used for the smelting of iron in the region (Abendanon 1917 in Bronson 1992:73; Bronson and Charoenwongsa 1986), as well as in Africa (Gordon and Killick 1993; Miller and Van Der Merwe 1994). The present authors do not dispute this evidence; we merely wish to counsel cautioninitsextrapolation.Modifyingour understanding of a population’s potential to locally produce their own iron has immediate ramifications for how we reconstruct ancient metal distribution net- works, and the social exchanges that have facilitated them since iron’s generally agreed appearance in Southeast Asian archaeological contexts during the mid-first millennium b.c. (e.g., Bellwood 2007:268; Higham 1989:190). We present this paper as a wholly constructive critique of what appears to be a prevailingperspectiveonpre-modernSoutheastAsianironmetallurgy.Wehave tried to avoid technical language and jargon wherever possible, as our aim is to motivate scholars working within the regiontogivefurtherconsiderationtoiron as a metal, as a technology, and as a socially significant medium (e.g., Appadurai 1998; Binsbergen 2005; Gosden and Marshall 1999). When writing a critique it is of course necessary to cite researchers with whom one disagrees, and we have done this with full acknowledgment that in modern archaeology no one person can encompass the entire knowledge spectrum of the discipline.1 The archaeome- tallurgy of iron is probably on the periphery of most of our colleagues’ interests, but sometimes, within the technical, lies the pivotal, and in sharing some of our insights we hope to illuminate issues of benefit to all researchers in Metal Age Southeast Asia. -
HISTORY of METALLURGY 2Nd Edition
A HISTORY OF METALLURGY 2nd Edition A HISTORY OF METALLURGY Second Edition R. F. Tylecote MANEY FOR THE INSTITUTE OF MATERIALS Book B0789 First published in paperback in 2002 by Maney Publishing 1 Carlton House Terrace London SW1Y 5DB for the Institute of Materials First published in 1976 Reprinted in 1979 2nd edn published 1992 © The Institute of Materials 1992 All rights reserved ISBN 1-902653-79-3 Printed and bound in the UK by Antony Rowe Ltd v Contents Preface to the Second Edition vii Foreword viii Acknowledgements ix Introduction xi 1 Metals and ores in the Neolithic period 1 2 The technique and development of early copper smelting 7 3 The Early Bronze Age 18 4 The Full Bronze Age 35 5 The Early Iron Age 47 6 The Roman Iron Age 62 7 The Migration and medieval period 75 8 Post-medieval metallurgy 95 9 The Industrial Revolution; AD 1720-1850 122 10 More recent times; AD 1850-1950 164 11 The contributions of the scientists 177 Appendixes: 188 Technical Glossary 188 Note on units of weight, stress, and hardness 190 Table of elements 190 Approximate date of start of metal ages 191 Chinese chronology 191 Journals consulted and abbreviations 191 Principal works consulted 193 Maps 1-6 194-198 Subject and name index 199 vii Preface to the Second Edition The first edition was published in 1976 and an enormous increase in the general interest in the subject of archeometallurgy has taken place since then. Much of this relates to the early phases and has been discussed in Proceedings of International Conferences. -
Tally Sticks, Counting Boards, and Sumerian Proto-Writing John Alan Halloran
Early Numeration - John Alan Halloran - August 10, 2009 - Page 1 Early Numeration - Tally Sticks, Counting Boards, and Sumerian Proto-Writing John Alan Halloran http://www.sumerian.org/ Work on the published version of my Sumerian Lexicon (Logogram Publishing: 2006) has revealed that: 1) the early Sumerians used wooden tally sticks for counting; 2) tally marks led to proto-writing; 3) the Sumerian pictograms for goats and sheep probably derive from tally stick notch conventions; 4) the Uruk period civilization used counting boards; 5) the authors of the proto-cuneiform tablets drew with animal claws or bird talons; 6) the historical Sumerians used clay split tallies as credit instruments; and 7) the Sumerians may sometimes have counted by placing knots or stones on a string. 1. Counting with Wooden Tally Sticks 1.1. The following text caught my attention. It is from The Debate between Sheep and Grain, ETCSL 5.3.2, lines 130-133: "Every night your count is made and your tally-stick put into the ground, so your herdsman can tell people how many ewes there are and how many young lambs, and how many goats and how many young kids." The Sumerian reads: 130 ud šu2-uš-e niñ2-kas7-zu ba-ni-ak-e ñiš 131 ŠID-ma-zu ki i3-tag-tag-ge - the Unicode version has ñiš-šudum- ma-zu 132 na-gada-zu u8 me-a sila4 tur-tur me-a 133 ud5 me-a maš2 tur-tur me-a lu2 mu-un-na-ab-be2 š is read |sh| and ñ is read |ng|. -
The Role of Metallurgical Clusters in the Development of Environmental Engineering: New Opportunities
E3S Web of Conferences 164, 01031 (2020) https://doi.org/10.1051/e3sconf /202016401031 TPACEE-2019 The role of metallurgical clusters in the development of environmental engineering: new opportunities 1,* 2 3 Kymbat Kunanbaeva , Saule Rahimova and Andrey Pigurin 1Financial University under the Government of the Russian Federation, 49, Leningradsky, 125993, Moscow, Russia 2S. Toraighyrov Pavlodar State University, 64, Lomov Str., 140008, Pavlodar, Kazakhstan, 3Moscow State University of Civil Engineering, 26, Yaroslavskoye Shosse, 109377, Moscow, Russia Abstract. This paper discusses the place and role of metallurgical clusters in the development of environmental engineering. The paper is based on research materials on the development of environmental engineering and the features of the functioning of metallurgical clusters. The paper studies the development of ferrous metallurgy, development trends, and developmental features of city-forming organizations of ferrous metallurgy. The main existing areas for development of metallurgical clusters and the relevance of environmental engineering development are shown. 1 Introduction At the present stage of development, metal as the main structural material ensures the production and scientific and technological development of the sectors of the national economy. Ferrous metallurgy is one of the key industries, the largest consumers of which are mechanical engineering, metalworking, construction industry, automotive industry, machine tool industry, and rail transport. It includes the extraction -
Notes on the History of Iron in Thailand Bennet Bronson *
205 Notes on The History of Iron in Thailand Bennet Bronson * INTRODUCTION ·When a general history of the use of metals in Thailand is written, the chapters on iron are likely to focus on two topics. One of these has already aroused lively interest among archaeologists and historians of technology: the question of the date when iron in Southeast Asia first came into use. The other, though, scarcely yet recognized as a problem for research, is equally puzzling and interesting: the question of the date when and the reasons why the original one-stage or "direct" process of ironmaking was replaced by the two-stage "indirect" process. The latter appears to have been unknown in Thailand during the periods usually studied by archaeologists. Yet it was dominant there by the time that historical sources first took notice of such things. In the 17th-18th centuries, the complex but efficient indirect ironmaking process was still unknown in most parts of the world. There were only three exceptions: Western Europe, Eastern Asia, and Thailand. This paper essays a preliminary treatment of both topics. The first section discusses the earliest iron in Thailand and neighboring regions. The second outlines the distribution of ·and the technical differences between the direct and indirect processes, suggesting that in its preference for the former, early Thailand is more like South As.ia and the Middle East than like China. The third presents archaeological evidence indicating that the direct process was the only one known in Southeast Asia in ancient times. The fourth presents historical evidence showing that a change had occurred by the 17th or 18th century, that ironmakers in Thailand (but not in the rest of Southeast Asia) had shifted to the indirect process. -
Ferrous Metallurgy from the Bir Massouda Metallurgical Precinct At
*Manuscript Click here to view linked References 1 Ferrous metallurgy from the Bir Massouda metallurgical precinct at Phoenician and Punic 2 Carthage and the beginning of the North African Iron Age 3 4 Brett Kaufmana*, Roald Docterb, Christian Fischerc, Fethi Chelbid, Boutheina Maraoui Telminie 5 6 a) Joukowsky Institute for Archaeology and the Ancient World, Brown University, Rhode Island 7 Hall, Box 1837, Providence, RI, 02912, USA 8 b) Department of Archaeology, Ghent University, Ghent (BE), Sint-Pietersnieuwstraat 35, B- 9 9000 Ghent, Belgium 10 c) Department of Materials Science and Engineering, University of California, Los Angeles 11 (UCLA), 410 Westwood Plaza, Los Angeles, CA, 90095 1595, USA 12 d) Institut National du Patrimoine, 4 Place du château, TN-1008, Tunis, Tunisia 13 e) Faculté des Sciences Humaines et Sociales de Tunis, University of Tunis, Boulevard du 9 14 Avril 1938, Tunis, Tunisia 15 16 *Corresponding author, Tel: 312-505-0170; email: [email protected] 17 18 Excavations of the Phoenician and Punic layers at the site of Bir Massouda in Carthage have 19 provided evidence for ferrous metallurgical activity spanning several centuries. 20 Archaeometallurgical analyses of slagged tuyères, slag, and alloys using optical microscopy, 21 portable x-ray fluorescence spectroscopy (pXRF), and variable pressure scanning electron 22 microscopy coupled with energy dispersive x-ray spectroscopy (VPSEM-EDS) show that 23 Carthaginian smiths were conducting primary smithing and forging of wrought iron and steel. 24 Although the majority of slag specimens are remnant from ferrous production, a few select finds 25 are from bronze recycling. The corpus represents the earliest known ferrous metallurgy in North 26 Africa. -
Guntram Hazod Introduction1 Hapter Two of the Old Tibetan Chronicle (PT 1287: L.63-117; Hereafter OTC.2)
THE GRAVES OF THE CHIEF MINISTERS OF THE TIBETAN EMPIRE MAPPING CHAPTER TWO OF THE OLD TIBETAN CHRONICLE IN THE LIGHT OF THE EVIDENCE OF THE TIBETAN TUMULUS TRADITION Guntram Hazod Introduction1 hapter two of the Old Tibetan Chronicle (PT 1287: l.63-117; hereafter OTC.2)2 is well known as the short paragraph that C lists the succession of Tibet’s chief ministers (blon che, blon chen [po]) – alternatively rendered as “prime minister” or “grand chancel- lor” in the English literature. Altogether 38 such appointments among nineteen families are recorded from the time of the Yar lung king called Lde Pru bo Gnam gzhung rtsan until the end of the Tibet- an empire in the mid-ninth century. This sequence is conveyed in a continuum that does not distin- guish between the developments before and after the founding of the empire. Only indirectly is there a line that specifies the first twelve ministers as a separate group – as those who were endowed with 1 The resarch for this chapter was conducted within the framework of the two projects “The Burial Mounds of Central Tibet“, parts I and II (financed by the Austrian Science Fund (FWF); FWF P 25066, P 30393; see fn. 2) and “Materiality and Material Culture in Tibet“ (Austrian Academy of Sciences (AAS) project, IF_2015_28) – both based at the Institute for Social Anthropology at the Austrian Academy of Sciences. I wish to thank Joanna Bialek, Per K. Sørensen, and Chris- tian Jahoda for their valuable comments on the drafts of this paper, and J. Bialek especially for her assistance with lingustic issues.