Chinese Astronomy As an Indicator of Technological Development
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The Dunhuang Chinese Sky: a Comprehensive Study of the Oldest Known Star Atlas
25/02/09JAHH/v4 1 THE DUNHUANG CHINESE SKY: A COMPREHENSIVE STUDY OF THE OLDEST KNOWN STAR ATLAS JEAN-MARC BONNET-BIDAUD Commissariat à l’Energie Atomique ,Centre de Saclay, F-91191 Gif-sur-Yvette, France E-mail: [email protected] FRANÇOISE PRADERIE Observatoire de Paris, 61 Avenue de l’Observatoire, F- 75014 Paris, France E-mail: [email protected] and SUSAN WHITFIELD The British Library, 96 Euston Road, London NW1 2DB, UK E-mail: [email protected] Abstract: This paper presents an analysis of the star atlas included in the medieval Chinese manuscript (Or.8210/S.3326), discovered in 1907 by the archaeologist Aurel Stein at the Silk Road town of Dunhuang and now held in the British Library. Although partially studied by a few Chinese scholars, it has never been fully displayed and discussed in the Western world. This set of sky maps (12 hour angle maps in quasi-cylindrical projection and a circumpolar map in azimuthal projection), displaying the full sky visible from the Northern hemisphere, is up to now the oldest complete preserved star atlas from any civilisation. It is also the first known pictorial representation of the quasi-totality of the Chinese constellations. This paper describes the history of the physical object – a roll of thin paper drawn with ink. We analyse the stellar content of each map (1339 stars, 257 asterisms) and the texts associated with the maps. We establish the precision with which the maps are drawn (1.5 to 4° for the brightest stars) and examine the type of projections used. -
Comparative Studies of Ancient Chinese and Greek Astronomy
S-88 – Comparative Studies of Ancient Chinese and Greek Astronomy Ancient & Medieval Science Organizers: 1) Sun Xiaochun, (University of Chinese Academy of Sciences, China), [email protected] 2) Efythymios Nicolaidis, (Institute for Neohellenic Research, National Hellenic Research Foundation, Greece), [email protected] Abstract: This symposium is about ancient Greek and Chinese astronomy. The focus will be on the relationship between cosmological ideas, observations, and computational techniques in both traditions. The Greek astronomy arose from Babylonian antecedents and was developed into a tradition characteristic of geometrical models, culminating in Ptolemy’s almagest. Greek philosophical thought about universe, such as by Plato and Aristotle played an important role in the development of astronomy. The Chinese were good observers of celestial phenomena. They independently developed an arithmetical tradition of astronomical computation. Its connection with cosmological ideas was not as tight as that in Greek astronomy. The two traditions had encountered through various ways in pre- modern times, but still maintained their own characters. Speakers in this symposium will use original texts to compare cosmos, measurement, and computation in the two astronomical traditions. Keywords: Ancient Greek and Chinese Astronomy – Comarative Studies – Astronomical instruments – Cosmological ideas – Computational Techniques. Participants: • Fotini Asimakopoulou • GoEun Choi, GoEun Choi, Ki-Won Lee, Byeong-Hee Mihn, Youg Sook Ahn • Kim Sang Hyuk, Kim Sang Hyuk, Mihn Byeong-Hee, Ham Seon Young • Dirk L. Couprie • Wang Guangchao • Eun Hee Lee • Mao Dan, JIANG Xiaoyuan • Christopher Cullen • Xiaochun Sun, Fan Yang • Dmitri Panchenko • Fung Kam Wing • Liu Weimo . -
The Discovery of Chinese Logic Modern Chinese Philosophy
The Discovery of Chinese Logic Modern Chinese Philosophy Edited by John Makeham, Australian National University VOLUME 1 The titles published in this series are listed at brill.nl/mcp. The Discovery of Chinese Logic By Joachim Kurtz LEIDEN • BOSTON 2011 This book is printed on acid-free paper. Library of Congress Cataloging-in-Publication Data Kurtz, Joachim. The discovery of Chinese logic / by Joachim Kurtz. p. cm. — (Modern Chinese philosophy, ISSN 1875-9386 ; v. 1) Includes bibliographical references and index. ISBN 978-90-04-17338-5 (hardback : alk. paper) 1. Logic—China—History. I. Title. II. Series. BC39.5.C47K87 2011 160.951—dc23 2011018902 ISSN 1875-9386 ISBN 978 90 04 17338 5 Copyright 2011 by Koninklijke Brill NV, Leiden, The Netherlands. Koninklijke Brill NV incorporates the imprints Brill, Global Oriental, Hotei Publishing, IDC Publishers, Martinus Nijhoff Publishers and VSP. All rights reserved. No part of this publication may be reproduced, translated, stored in a retrieval system, or transmitted in any form or by any means, electronic, mechanical, photocopying, recording or otherwise, without prior written permission from the publisher. Authorization to photocopy items for internal or personal use is granted by Koninklijke Brill NV provided that the appropriate fees are paid directly to The Copyright Clearance Center, 222 Rosewood Drive, Suite 910, Danvers, MA 01923, USA. Fees are subject to change. CONTENTS List of Illustrations ...................................................................... vii List of Tables ............................................................................. -
Dengfeng Observatory, China
90 ICOMOS–IAU Thematic Study on Astronomical Heritage Archaeological/historical/heritage research: The Taosi site was first discovered in the 1950s. During the late 1970s and early 1980s, archaeologists excavated nine chiefly tombs with rich grave goods, together with large numbers of common burials and dwelling foundations. Archaeologists first discovered the walled towns of the Early and Middle Periods in 1999. The remains of the observatory were first discovered in 2003 and totally uncovered in 2004. Archaeoastronomical surveys were undertaken in 2005. This work has been published in a variety of Chinese journals. Chinese archaeoastronomers and archaeologists are currently conducting further collaborative research at Taosi Observatory, sponsored jointly by the Committee of Natural Science of China and the Academy of Science of China. The project, which is due to finish in 2011, has purchased the right to occupy the main field of the observatory site for two years. Main threats or potential threats to the sites: The most critical potential threat to the observatory site itself is from the burials of native villagers, which are placed randomly. The skyline formed by Taer Hill, which is a crucial part of the visual landscape since it contains the sunrise points, is potentially threatened by mining, which could cause the collapse of parts of the top of the hill. The government of Xiangfen County is currently trying to shut down some of the mines, but it is unclear whether a ban on mining could be policed effectively in the longer term. Management, interpretation and outreach: The county government is trying to purchase the land from the local farmers in order to carry out a conservation project as soon as possible. -
The History of the Russian Study of Chinese Astronomy
The history of the Russian study of Chinese astronomy Galina I. Sinkevich Saint Petersburg State University of Architecture and Civil Engineering [email protected] Abstract. The first relations between Russia and China date to the 13th century. From the 16th c., Russia sent ambassadors to China, who made a description of the country. In the 17th century, a Russian Orthodox mission was founded, led by Father Maxim Tolstoukhov. In the 18th century, the scholars of St.-Petersburg Academy of Sciences took a great interest in the history of Chinese astronomy in letters sent by the Jesuit mission in China. In the 19th c., the Orthodox mission in China began to carry out many functions – trade, diplomacy, science. Petersburg academy sent students to study various aspects of life in China, laying the foundations of Russian sinology. In 1848, St-Petersburg academy founded in Beijing a magnetic and meteorological observatory headed by K. Skachkov. He lived in China for 25 years and made extensive studies of the history of Chinese astronomy. He not only mastered Chinese but also studied many old manuscripts on astronomy. He wrote the research “The fate of astronomy in China” (1874). After Skachkov, Chinese astronomy was studied by G.N. Popov (1920), A.V. Marakuev (1934), and E.I. Beryozkina, who translated “Mathematics in nine books” into Russian (1957) and published a monograph on the history of Chinese mathematics, 1980. In 1995-2003, Beryozkina’s post-graduate student at Moscow University, Fang Yao (Beijing), made a partial translation of the “Treatise on the Gnomon” (Zhoubi Suanjing) into Russian. -
Geminos and Babylonian Astronomy
Geminos and Babylonian astronomy J. M. Steele Introduction Geminos’ Introduction to the Phenomena is one of several introductions to astronomy written by Greek and Latin authors during the last couple of centuries bc and the first few centuries ad.1 Geminos’ work is unusual, however, in including some fairly detailed—and accurate—technical information about Babylonian astronomy, some of which is explicitly attributed to the “Chal- deans.” Indeed, before the rediscovery of cuneiform sources in the nineteenth century, Gem- inos provided the most detailed information on Babylonian astronomy available, aside from the reports of several eclipse and planetary observations quoted by Ptolemy in the Almagest. Early-modern histories of astronomy, those that did not simply quote fantastical accounts of pre-Greek astronomy based upon the Bible and Josephus, relied heavily upon Geminos for their discussion of Babylonian (or “Chaldean”) astronomy.2 What can be learnt of Babylonian astron- omy from Geminos is, of course, extremely limited and restricted to those topics which have a place in an introduction to astronomy as this discipline was understood in the Greek world. Thus, aspects of Babylonian astronomy which relate to the celestial sphere (e.g. the zodiac and the ris- ing times of the ecliptic), the luni-solar calendar (e.g. intercalation and the 19-year (“Metonic”) cycle), and lunar motion, are included, but Geminos tells us nothing about Babylonian planetary theory (the planets are only touched upon briefly by Geminos), predictive astronomy that uses planetary and lunar periods, observational astronomy, or the problem of lunar visibility, which formed major parts of Babylonian astronomical practice. -
Arxiv:2005.07210V1 [Astro-Ph.SR] 14 May 2020
Research in Astronomy and Astrophysics manuscript no. (LATEX: main.tex; printed on May 18, 2020; 0:30) LAMOST Medium-Resolution Spectroscopic Survey (LAMOST-MRS): Scientific goals and survey plan Chao Liu1;2, Jianning Fu3, Jianrong Shi4;2, Hong Wu4, Zhanwen Han5, Li Chen6;2, Subo Dong7;8, Yongheng Zhao4;2, Jian-Jun Chen4, Haotong Zhang4, Zhong-Rui Bai4, Xuefei Chen5, Wenyuan Cui9, Bing Du4, Chih-Hao Hsia10, Deng-Kai Jiang5, Jinliang Hou6;2, Wen Hou4, Haining Li4, Jiao Li5;1, Lifang Li5, Jiaming Liu4, Jifeng Liu4;2, A-Li Luo4;2, Juan-Juan Ren1, Hai-Jun Tian11, Hao Tian1, Jia-Xin Wang3, Chao-Jian Wu4, Ji-Wei Xie12;13, Hong-Liang Yan4;2, Fan Yang4, Jincheng Yu6, Bo Zhang3;4, Huawei Zhang7;8, Li-Yun Zhang14, Wei Zhang4, Gang Zhao4, Jing Zhong6, Weikai Zong3 and Fang Zuo4;2 1 Key Lab of Space Astronomy and Technology, National Astronomical Observatories, Chinese Academy of Sciences, Beijing 100101, China; [email protected] 2 University of Chinese Academy of Sciences, 100049, China 3 Department of Astronomy, Beijing Normal University, Beijing, 100875, China 4 Key Lab of Optical Astronomy, National Astronomical Observatories, Chinese Academy of Sciences, Beijing 100101, China 5 Yunan Astronomical Observatory, China Academy of Sciences, Kunming, 650216, China 6 Key Laboratory for Research in Galaxies and Cosmology, Shanghai Astronomical Observatory, Chinese Academy of Sciences, 80 Nandan Road, Shanghai 200030, China 7 Department of Astronomy, School of Physics, Peking University, Beijing 100871, China 8 Kavli Institute of Astronomy and Astrophysics, -
Guo Shoujing (Chine, 1989)
T OPTICIENS CÉLÈBRES OPTICIENS CÉLÈBRES Principales dates PORTRAI 1231 – Naissance à Xingtai (actuelle province de Hebei, Chine) 1280 Etablit le Calendrier Shoushi 1286 Nommé Directeur du Bureau de l’astronomie et du calendrier 1290 Rénove et aménage le Gand Canal de Dadu 1292 Nommé Gouverneur du Bureau des travaux hydrauliques 1316 – Décès à Dadu (actuelle Pékin, Chine) Pièce de 5 Yuans à l’efgie de Guo Shoujing (Chine, 1989). Guo Shoujing (ou Kuo Shou-ching) Riad Haidar, [email protected] Grand astronome, ingénieur hydraulique astucieux et mathématicien inspiré, contemporain de Marco Polo à la cour de Kubilai Khan sous la dynastie Yuan, Guo Shoujing est une des grandes gures des sciences chinoises. Surnommé le Tycho Brahe de la Chine, on lui doit plusieurs instruments d’astronomie (dont le perfectionnement du gnomon1 antique) et surtout d’avoir établi le fameux calendrier Shoushi, si précis qu’il servit de référence pendant près de quatre siècles en Asie et que de nombreux historiens le considèrent comme le précurseur du calendrier Grégorien. uo Shoujing naît en 1231 dans une famille modeste de C’est à cette époque que Kubilai, petit-ls du grand conquérant la ville de Xingtai, dans l’actuelle province de Hebei à mongol Genghis Khan, entreprend son ascension du pouvoir su- G l’Est de la Chine (hebei signie littéralement au nord du prême chinois. Il est nommé Grand Khan le 5 mai 1260 et, en euve Jaune). Son grand-père paternel Yong est un érudit, fameux souverain éclairé, commence à organiser l’empire en appliquant à travers la Chine pour sa maîtrise parfaite des Cinq Classiques les méthodes qui ont fait leur preuve lors de ses précédentes ad- qui forment le socle culturel commun depuis Confucius, ainsi que ministrations et qui lui permettront de bâtir un des empires les plus pour sa connaissance des mathématiques et de l’hydraulique. -
Eclipses and the Victory of European Astronomy in China
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by East Asian Science, Technology, and Medicine (EASTM - Universität Tübingen) EASTM 27 (2007): 127-145 Eclipses and the Victory of European Astronomy in China Lü Lingfeng [Lü Lingfeng is associate professor at Department of History of Science and Archaeometry, University of Science and Technology of China (USTC). He re- ceived his Ph.D. from USTC in 2002. He was Alexander von Humboldt Research Fellow at Friedrich-Alexander University Erlangen-Nürnberg from December 2004 to November 2006.] * * * In the late Ming dynasty, European astronomy was introduced into China by the Jesuits. After a long period of competition with traditional Chinese astronomy, it finally came to dominate imperial astronomy in the early Qing dynasty. Accord- ing to historical documents, the most important factor in the success of European astronomy in China was its exactitude in the calculation of celestial phenomena, especially solar and lunar eclipses, which not only played a very special role in traditional Chinese political astrology but belonged among the most important celestial events for judging the precision of a system of calendrical astronomy. 1 This was true in ancient China from the Eastern Han (25-220) period all the way up to the late Ming period (1368-1644). During the calendar-debate between European, Islamic and Chinese astronomy in the Chongzhen reign period (1628- 1644), Xu Guangqi 徐 光 啟 (1562-1633) 2 also pointed out: “The erroneousness and exactness of a calendrical system can obviously only be seen from eclipses, while other phenomena are all too shady and dull to serve as indication.” 3 Re- cently, Shi Yunli and I have made a systematic analysis of the degree of precision of both the calculation and the observation of luni-solar eclipses in the late Ming 1 The astronomer Liu Hong 劉 洪 of the Eastern Han dynasty pointed out that eclipse prediction was an important way to check the accuracy of a calendar. -
Early China DID BABYLONIAN ASTROLOGY
Early China http://journals.cambridge.org/EAC Additional services for Early China: Email alerts: Click here Subscriptions: Click here Commercial reprints: Click here Terms of use : Click here DID BABYLONIAN ASTROLOGY INFLUENCE EARLY CHINESE ASTRAL PROGNOSTICATION XING ZHAN SHU ? David W. Pankenier Early China / Volume 37 / Issue 01 / December 2014, pp 1 - 13 DOI: 10.1017/eac.2014.4, Published online: 03 July 2014 Link to this article: http://journals.cambridge.org/abstract_S0362502814000042 How to cite this article: David W. Pankenier (2014). DID BABYLONIAN ASTROLOGY INFLUENCE EARLY CHINESE ASTRAL PROGNOSTICATION XING ZHAN SHU ?. Early China, 37, pp 1-13 doi:10.1017/eac.2014.4 Request Permissions : Click here Downloaded from http://journals.cambridge.org/EAC, by Username: dpankenier28537, IP address: 71.225.172.57 on 06 Jan 2015 Early China (2014) vol 37 pp 1–13 doi:10.1017/eac.2014.4 First published online 3 July 2014 DID BABYLONIAN ASTROLOGY INFLUENCE EARLY CHINESE ASTRAL PROGNOSTICATION XING ZHAN SHU 星占術? David W. Pankenier* Abstract This article examines the question whether aspects of Babylonian astral divination were transmitted to East Asia in the ancient period. An often-cited study by the Assyriologist Carl Bezold claimed to discern significant Mesopotamian influence on early Chinese astronomy and astrology. This study has been cited as authoritative ever since, includ- ing by Joseph Needham, although it has never been subjected to careful scrutiny. The present article examines the evidence cited in support of the claim of transmission. Traces of Babylonian Astrology in the “Treatise on the Celestial Offices”? In , the Assyriologist Carl Bezold published an article concerning the Babylonian influence he claimed to discern in Sima Qian’s 司馬遷 and Sima Tan’s 司馬談 “Treatise on the Celestial Offices” 天官書 (c. -
The Peculiar Velocities in the Galactic Outer Disk--Hints of the Elliptical Disk
Draft version July 14, 2021 Preprint typeset using LATEX style emulateapj v. 5/2/11 THE PECULIAR VELOCITIES IN THE GALACTIC OUTER DISK|HINTS OF THE ELLIPTICAL DISK AND THE PERTURBATION OF THE SPIRAL STRUCTURES Hai-Jun Tian1,2, Chao Liu3, Jun-Chen Wan3, Li-Cai Deng3, Zi-Huang Cao3, Yong-Hui Hou4, Yue-Fei Wang4, Yue Wu3, Yong Zhang4, Yong-Heng Zhao3 Draft version July 14, 2021 ABSTRACT We present the peculiar in-plane velocities derived from the LAMOST red clump stars. From the variations of the in-plane velocity with the Galactocentric radius for the young and old red clump stars, we are able to identify two types of peculiar velocities: 1) both the two red clump populations show that the radial velocity is negative within R = 9:0 kpc and becomes positive beyond (denoted as the long-wave mode); and 2) the young red clump stars show larger mean radial velocity than the old population by about 3 kms−1 between R = 9 and 12 kpc (denoted as the short-wave mode). We find that the elliptical disk induced by the rotating bar can well explain the long-wave mode peculiar velocity. The axis ratio of the elliptical disk is around 0.8-0.95 and the disk keeps circular at R = 9:24 0:2 kpc, which should be the location of the outer Lindblad resonance radius (OLR). Adopting the± circular speed of 238 kms−1, the pattern speed of the bar is then derived as 48 3 kms−1kpc−1 from the location of OLR. -
Grand Ca Life | Grand Canal
16 CHINA DAILY | HONG KONG EDITION Tuesday, January 19, 2021 | 17 LIFE | GRAND CANAL Masterminds of milestones Flowing prosperity CULTURAL CONNOTATIONS More than 400 items found Sui Dynasty (581-618) Emperor Yang ordered a BEIJING along the Grand Canal have In 486 BC, Han Gou, in massive canal project from AD 605 to 610 centered been inscribed on the list of today’s Jiangsu province, on Luoyang, in today’s Henan province, as the national-level intangible was constructed following “eastern capital” of his united empire. The 2,400-km cultural heritage, including folk orders by Fuchai, a king of canal links Zhuojun, near today’s Beijing, and TIANJIN arts, handicrafts and local the Wu State during the Hangzhou, which is now Zhejiang’s provincial capital. beliefs. Tianjin’s Yangliuqing Spring and Autumn Period Although the canal was originally built to consolidate Lunar New Year woodcut (770-476 BC), to connect the his control over the northeast and southeast of his paintings are a representative Yangtze and Huaihe rivers. territory, the project’s expense undermined the ruler, example. Ming Dynasty Subsequent monarchs who indulged in luxury and accelerated the dynasty’s (1368-1644) artisans created continued digging canals to fall. Nevertheless, his canal remained pivotal to this renowned art form using make full use of waterways, transportation during the Tang (618-907) and fine paper and dyes shipped advance transportation and Northern Song (960-1127) dynasties. from the south. enhance national stability. The canal in eastern Zhejiang, which was first SUPERVISING constructed in AD 300, was expanded during SHIPMENTS the Southern Song Dynasty (1127-1279).