Nptel Course on Mathematics in India: from Vedic Period
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Mathematicians
MATHEMATICIANS [MATHEMATICIANS] Authors: Oliver Knill: 2000 Literature: Started from a list of names with birthdates grabbed from mactutor in 2000. Abbe [Abbe] Abbe Ernst (1840-1909) Abel [Abel] Abel Niels Henrik (1802-1829) Norwegian mathematician. Significant contributions to algebra and anal- ysis, in particular the study of groups and series. Famous for proving the insolubility of the quintic equation at the age of 19. AbrahamMax [AbrahamMax] Abraham Max (1875-1922) Ackermann [Ackermann] Ackermann Wilhelm (1896-1962) AdamsFrank [AdamsFrank] Adams J Frank (1930-1989) Adams [Adams] Adams John Couch (1819-1892) Adelard [Adelard] Adelard of Bath (1075-1160) Adler [Adler] Adler August (1863-1923) Adrain [Adrain] Adrain Robert (1775-1843) Aepinus [Aepinus] Aepinus Franz (1724-1802) Agnesi [Agnesi] Agnesi Maria (1718-1799) Ahlfors [Ahlfors] Ahlfors Lars (1907-1996) Finnish mathematician working in complex analysis, was also professor at Harvard from 1946, retiring in 1977. Ahlfors won both the Fields medal in 1936 and the Wolf prize in 1981. Ahmes [Ahmes] Ahmes (1680BC-1620BC) Aida [Aida] Aida Yasuaki (1747-1817) Aiken [Aiken] Aiken Howard (1900-1973) Airy [Airy] Airy George (1801-1892) Aitken [Aitken] Aitken Alec (1895-1967) Ajima [Ajima] Ajima Naonobu (1732-1798) Akhiezer [Akhiezer] Akhiezer Naum Ilich (1901-1980) Albanese [Albanese] Albanese Giacomo (1890-1948) Albert [Albert] Albert of Saxony (1316-1390) AlbertAbraham [AlbertAbraham] Albert A Adrian (1905-1972) Alberti [Alberti] Alberti Leone (1404-1472) Albertus [Albertus] Albertus Magnus -
Ancient Indian Leaps Into Mathematics Editors B.S
B.S. Yadav Man Mohan Editors Ancient Indian Leaps into Mathematics Editors B.S. Yadav (Deceased) Man Mohan Ramjas College University of Delhi 110 007 New Delhi India [email protected] ISBN 978-0-8176-4694-3 e-ISBN 978-0-8176-4695-0 DOI 10.1007/978-0-8176-4695-0 Springer New York Dordrecht Heidelberg London Library of Congress Control Number: 2010937771 Mathematics Subject Classification (2010): 01A32, 01A16, 01A17, 01A25, 01A27, 01A29 c Springer Science+Business Media, LLC 2011 All rights reserved. This work may not be translated or copied in whole or in part without the written permission of the publisher (Springer Science+Business Media, LLC, 233 Spring Street, New York, NY 10013, USA), except for brief excerpts in connection with reviews or scholarly analysis. Use in connection with any form of information storage and retrieval, electronic adaptation, computer software, or by similar or dissimilar methodology now known or hereafter developed is forbidden. The use in this publication of trade names, trademarks, service marks, and similar terms, even if they are not identified as such, is not to be taken as an expression of opinion as to whether or not they are subject to proprietary rights. Printed on acid-free paper www.birkhauser-science.com Dedicated to the memory of U. N. SINGH The Founder of the Indian Society for History of Mathematics U. N. Singh (November 19, 1920 – April 9, 1989) Professor B. S. Yadav (31 July 1931 – 24 February 2010) B. S. Yadav was born in Mathura, India. He dedicated his whole life to the cause of mathematics and the history of mathematical sciences. -
Aryabhatiya with English Commentary
ARYABHATIYA OF ARYABHATA Critically edited with Introduction, English Translation. Notes, Comments and Indexes By KRIPA SHANKAR SHUKLA Deptt. of Mathematics and Astronomy University of Lucknow in collaboration with K. V. SARMA Studies V. V. B. Institute of Sanskrit and Indological Panjab University INDIAN NATIONAL SCIENCE ACADEMY NEW DELHI 1 Published for THE NATIONAL COMMISSION FOR THE COMPILATION OF HISTORY OF SCIENCES IN INDIA by The Indian National Science Academy Bahadur Shah Zafar Marg, New Delhi— © Indian National Science Academy 1976 Rs. 21.50 (in India) $ 7.00 ; £ 2.75 (outside India) EDITORIAL COMMITTEE Chairman : F. C. Auluck Secretary : B. V. Subbarayappa Member : R. S. Sharma Editors : K. S. Shukla and K. V. Sarma Printed in India At the Vishveshvaranand Vedic Research Institute Press Sadhu Ashram, Hosbiarpur (Pb.) CONTENTS Page FOREWORD iii INTRODUCTION xvii 1. Aryabhata— The author xvii 2. His place xvii 1. Kusumapura xvii 2. Asmaka xix 3. His time xix 4. His pupils xxii 5. Aryabhata's works xxiii 6. The Aryabhatiya xxiii 1. Its contents xxiii 2. A collection of two compositions xxv 3. A work of the Brahma school xxvi 4. Its notable features xxvii 1. The alphabetical system of numeral notation xxvii 2. Circumference-diameter ratio, viz., tz xxviii table of sine-differences xxviii . 3. The 4. Formula for sin 0, when 6>rc/2 xxviii 5. Solution of indeterminate equations xxviii 6. Theory of the Earth's rotation xxix 7. The astronomical parameters xxix 8. Time and divisions of time xxix 9. Theory of planetary motion xxxi - 10. Innovations in planetary computation xxxiii 11. -
Aryabhatta Date an Analytical Study
ARYABHATTA’S DATE AN ANALYTICAL STUDY Dr. M.L. Raja, M.B., B.S., D.O., AVINASH English ARYABHATTA’S DATE AN ANALYTICAL STUDY By- Dr. M.L. Raja Published by AVINASH Printed at Sankav Offset Printerss, Erode Cover Design & Type setting A.P. Nallashivam Published in January 2016 Yugabdom 5117 IPrice `160. ISBN: 978-93-84582-54-8BN: 978i AVINASH Academy on Vibrant National Arts & Scientific Heritage Erode, Tamilnadu Ph : 94433 70129 E-mail : [email protected] PREFACE In the history our Nation, we can find thousands and thousands of great scholars and their works, in almost all fields of science. We can cite examples, at least a few hundred in each century, scattering over a very long period of time, exceeding a minimum of ten thousand years. Their works in the various fields of science are remarkably outstanding, highly astonishing and fully scientific with thorough and clear knowledge, exceeding the modern scientific achievements, at least in a few aspects. But, the most unfortunate thing is, we are very much ignorant of our ancestor’s glorious antiquity, Himalayan achievements, high technological skill and the vast knowledge and wisdom and their highly admirable scientific works are not at all included in our Nation’s educational curriculum. So, it is right time or even if late, it is better late than never, to bring forth these ancient scientific works of our glorious Nation, in the day-light, amongst the present and the future generations of our Nation. With that motive in mind, this book on Âryabhaa is a very small, but a firm step in that direction, where the actual date and name of Âryabhaa and his texts are detailed. -
Determination of Ascensional Difference in the Lagnaprakaraṇa
Indian Journal of History of Science, 53.3 (2018) 302-316 DOI:10.16943/ijhs/2018/v53i3/49462 Determination of Ascensional Difference in the Lagnaprakaraṇa Aditya Kolachana∗ , K Mahesh∗ , Clemency Montelle∗∗ and K Ramasubramanian∗ (Received 31 January 2018) Abstract The ascensional difference or the cara is a fundamental astronomical concept that is crucial in de- termining the durations of day and night, which are a function of the observer’s latitude and the time of the year. Due to its importance, almost all astronomical texts prescribe a certain procedure for the determination of this element. The text Lagnaprakaraṇa—a hitherto unpublished manuscript attributed to Mādhava, the founder of the Kerala school of astronomy and mathematics—however discusses not one, but a number of techniques for the determination of the cara that are both inter- esting and innovative. The present paper aims to discuss these techniques. Key words: Arkāgraguṇa, Ascensional difference, Cara, Carajyā, Carāsu, Dyuguṇa, Dyujyā, Earth-sine, Kujyā, Lagnaprakaraṇa, Mādhava, Mahīguṇa 1. INTRODUCTION of the rising times of the different zodiacal signs (rāśis) at a given latitude. The ascensional difference (cara henceforth) is an The Lagnaprakaraṇa1 (Treatise for the Compu- important astronomical element that is involved in tation of the Ascendant) is a work comprised of a variety of computations related to diurnal prob- eight chapters, dedicated to the determination of lems. It is essentially the difference between the the ascendant (udayalagna or orient ecliptic point), right ascension and the oblique ascension of a and discusses numerous techniques for the same. body measured in time units. At the time of rising, However, as a necessary precursor to determin- the cara gives the time interval taken by a body to ing the ascendant, the text first discusses various traverse between the horizon and the six o’ clock methods to obtain the prāṇakalāntara,2 as well as circle or vice-versa depending upon whether the the cara. -
Editors Seek the Blessings of Mahasaraswathi
OM GAM GANAPATHAYE NAMAH I MAHASARASWATHYAI NAMAH Editors seek the blessings of MahaSaraswathi Kamala Shankar (Editor-in-Chief) Laxmikant Joshi Chitra Padmanabhan Madhu Ramesh Padma Chari Arjun I Shankar Srikali Varanasi Haranath Gnana Varsha Narasimhan II Thanks to the Authors Adarsh Ravikumar Omsri Bharat Akshay Ravikumar Prerana Gundu Ashwin Mohan Priyanka Saha Anand Kanakam Pranav Raja Arvind Chari Pratap Prasad Aravind Rajagopalan Pavan Kumar Jonnalagadda Ashneel K Reddy Rohit Ramachandran Chandrashekhar Suresh Rohan Jonnalagadda Divya Lambah Samika S Kikkeri Divya Santhanam Shreesha Suresha Dr. Dharwar Achar Srinivasan Venkatachari Girish Kowligi Srinivas Pyda Gokul Kowligi Sahana Kribakaran Gopi Krishna Sruti Bharat Guruganesh Kotta Sumedh Goutam Vedanthi Harsha Koneru Srinath Nandakumar Hamsa Ramesha Sanjana Srinivas HCCC Y&E Balajyothi class S Srinivasan Kapil Gururangan Saurabh Karmarkar Karthik Gururangan Sneha Koneru Komal Sharma Sadhika Malladi Katyayini Satya Srivishnu Goutam Vedanthi Kaushik Amancherla Saransh Gupta Medha Raman Varsha Narasimhan Mahadeva Iyer Vaishnavi Jonnalagadda M L Swamy Vyleen Maheshwari Reddy Mahith Amancherla Varun Mahadevan Nikky Cherukuthota Vaishnavi Kashyap Narasimham Garudadri III Contents Forword VI Preface VIII Chairman’s Message X President’s Message XI Significance of Maha Kumbhabhishekam XII Acharya Bharadwaja 1 Acharya Kapil 3 Adi Shankara 6 Aryabhatta 9 Bhadrachala Ramadas 11 Bhaskaracharya 13 Bheeshma 15 Brahmagupta Bhillamalacarya 17 Chanakya 19 Charaka 21 Dhruva 25 Draupadi 27 Gargi -
GIPE-043972-Contents.Pdf (1.117Mb)
REPORT OF THE CALENDAR REFORM I:DMMITTEE GOVERNMENT OF INDIA Council of Scientific and Industrial Research, Old Mill Road, • New Delhi. 1955 REPORT OF THE l:llLENDAR REFORM l:OMMITTEE · GOVERNMENT OF INDIA Council of Scientific and Industrial Research, Old Mill Road, New Delhi. 1955 Pub~shed by The Council of Scientific and Industrial Reaearch, Old Mill Road, New Delhi. Printed by Sri Hari Narayan Dey, Sree Gopal Printing Works, 25/IA, Kalidas Singhee Lane,· Calctitta-9. M E S S A G E. I am glad that the Calendar Reform Committee has started its lab~urs. The Government of India has entrusted to it the work of examining the different calendars followed in this country and to submit proposals to the Government for an accurate and uniform calendar based on a scientific study for the whole of India. I am told that we have at present thirty different calendars, differing from each other in various ways, including the methods of time reckoning. These calendars are the natural result of our past political and cultural history an1 partly represent past political divisions in the country. Now that we have attained independence, it is obviously desirable that there should be a certain uniformity in the calendar for our civic, social and other purposes and that this should be based on a scientific approach to this problem. It is true the.t for governmental and many other public p~poses we follow the Gregorian calendar, which is used in the greater part of the world. The mere fact that it is largely used, makes it important. -
Ancient Indian Mathematics – a Conspectus*
GENERAL ARTICLE Ancient Indian Mathematics – A Conspectus* S G Dani India has had a long tradition of more than 3000 years of pursuit of Mathematical ideas, starting from the Vedic age. The Sulvasutras (which in- cluded Pythagoras theorem before Pythagoras), the Jain works, the base 10 representation (along with the use of 0), names given to powers of 10 S G Dani is a Distinguished up to 1053, the works of medieval mathematicians Professor at the Tata motivated by astronomical studies, and ¯nally Institute of Fundamental Research, Mumbai. He the contributions of the Kerala school that came obtained his bachelor’s, strikingly close to modern mathematics, repre- master’s and PhD degrees sent the various levels of intellectual attainment. from the University of Mumbai. His areas of There is now increasing awareness around the world that interest are dynamics and as one of the ancient cultures, India has contributed sub- ergodic theory of flows on stantially to the global scienti¯c development in many homogeneous spaces, spheres, and mathematics has been one of the recognized probability measures on Lie groups areas in this respect. The country has witnessed steady and history of mathematics. mathematical developments over most part of the last He has received 3,000 years, throwing up many interesting mathemati- several awards including cal ideas well ahead of their appearance elsewhere in the the Ramanujan Medal and the world, though at times they lagged behind, especially in TWAS Prize. the recent centuries. Here are some episodes from the fascinating story that forms a rich fabric of the sustained * This is a slightly modified ver- intellectual endeavour. -
Water Clock and Steelyard in the Jyotiṣkaraṇḍaka
International Journal of Jaina Studies (Online) Vol. 14, No. 2 (2018) 1-49 WATER CLOCK AND STEELYARD IN THE JYOTIṢKARAṆḌAKA Sreeramula Rajeswara Sarma for Professor Nalini Balbir in friendship and admiration 0 Introduction Mahāvīrācārya, the great Jain mathematician who flourished in Karnataka in the ninth century, at the beginning of his mathematical work Gaṇitasārasaṃgraha, pays homage to Jina Mahāvīra who illuminated the entire universe with saṃkhyā-jñāna, the science of numbers. 1 Indeed, saṃkhyā-jñāna plays an important role in Jainism which seeks to comprehend the entire universe in numerical terms. In this process, the Jains conceived of immensely large numbers, making a very fine and subtle classification of transfinite numbers and operating with laws of integral and fractional indices and some kind of proto-logarithms.2 Kāla-jñāna or kāla-vibhāga is an important part of the saṃkhyā-jñāna, for time too needs to be comprehended in numbers. Jains measured time from the microscopic samaya, which cannot be sub-divided any further,3 to the macroscopic śīrṣa-prahelikā, a number indicating years which is said to occupy 194 or even 250 places in decimal notation.4 But for vyāvahārika or practical purposes, especially for the calendar, the early Jain literature makes use of a five-year cycle or yuga. The basic problem in astronomical time- measurement is that the apparent movements of the two great luminaries who determine the passage of time, namely the Sun and the Moon, do not synchronize. The lunar year falls short of about eleven days in comparison to the solar year and does not keep step with the passage of seasons. -
Śrīpati's Arithmetic in the Siddhāntaśekhara And
ŚRĪPATI’S ARITHMETIC IN THE SIDDHĀNTAŚEKHARA AND GAṆITATILAKA: EDITION, TRANSLATION, AND MATHEMATICAL AND HISTORICAL ANALYSIS Rev. Jambugahapitiye Dhammaloka Thero A thesis submitted in partial fulfilment of the requirements for the degree of Doctor of Philosophy in Mathematics Department of Mathematics and Statistics University of Canterbury New Zealand 2019 Abstract The literature on the exact sciences in Sanskrit in the second millennium is significant from a his- torical point of view because of the emergence of innovative ideas, systematization of the traditional knowledge, advanced technicality, creativity of the scientific writing style, and so on. Śrīpati, a mathematician-astronomer, is the first known writer of exact sciences in this era. He lived inthe 11th century most probably in Maharashtra and he wrote in a vast range of subjects from astrology to astronomy. In spite of his prolific writings and influence in the early stages of the second millennium, Śrīpati has been understudied. Śrīpati is the first author who wrote a separate mathematical text while still retaining all the main mathematical rules in theoretical astronomical texts. It is Śrīpati who used different elegant metrical forms in versification of mathematical rules. Most importantly, he invented several rules in arithmetic and provided inspiration for successive mathematicians and astronomers especially Bhāskara II. In this thesis we provide a critical edition of the 13th chapter of Śrīpati’s Siddhāntaśekhara, an astronomical work, consulting the published edition and three manuscripts and his Gaṇitatilaka, his arithmetic text, based on the published edition. They are followed by the critical translation and the commentary where mathematical analysis of all the rules is given. -
History of Science and Technology in India
DDCE/History (M.A)/SLM/Paper HISTORY OF SCIENCE AND TECHNOLOGY IN INDIA By Dr. Binod Bihari Satpathy 1 CONTENT HISTORY OF SCIENCE AND TECHNOLOGY IN INDIA Unit.No. Chapter Name Page No Unit-I. Science and Technology- The Beginning 1. Development in different branches of Science in Ancient India: 03-28 Astronomy, Mathematics, Engineering and Medicine. 2. Developments in metallurgy: Use of Copper, Bronze and Iron in 29-35 Ancient India. 3. Development of Geography: Geography in Ancient Indian Literature. 36-44 Unit-II Developments in Science and Technology in Medieval India 1. Scientific and Technological Developments in Medieval India; 45-52 Influence of the Islamic world and Europe; The role of maktabs, madrasas and karkhanas set up. 2. Developments in the fields of Mathematics, Chemistry, Astronomy 53-67 and Medicine. 3. Innovations in the field of agriculture - new crops introduced new 68-80 techniques of irrigation etc. Unit-III. Developments in Science and Technology in Colonial India 1. Early European Scientists in Colonial India- Surveyors, Botanists, 81-104 Doctors, under the Company‘s Service. 2. Indian Response to new Scientific Knowledge, Science and 105-116 Technology in Modern India: 3. Development of research organizations like CSIR and DRDO; 117-141 Establishment of Atomic Energy Commission; Launching of the space satellites. Unit-IV. Prominent scientist of India since beginning and their achievement 1. Mathematics and Astronomy: Baudhayan, Aryabhtatta, Brahmgupta, 142-158 Bhaskaracharya, Varahamihira, Nagarjuna. 2. Medical Science of Ancient India (Ayurveda & Yoga): Susruta, 159-173 Charak, Yoga & Patanjali. 3. Scientists of Modern India: Srinivas Ramanujan, C.V. Raman, 174-187 Jagdish Chandra Bose, Homi Jehangir Bhabha and Dr. -
Dhava—A Great Kerala Mathematician of Medieval Times
Indian Journal of History of Science, 47.4 (2012) 679-697 – MADHAVA—A GREAT KERALA MATHEMATICIAN OF MEDIEVAL TIMES A.K. BAG* (Received 6 June 2011) Ma–dhava (c. 1340-1425 AD) of Sangamagra–ma (a village near the temple of Samgamesƒvara, modern Irinjalakkuda, lat 100 20´ N near Kochi/Cochin) is supposed to be one of the greatest mathematicians that medieval Kerala had produced. He was at the top of the lineage of the medieval Kerala mathematicians followed by Paramesƒvara, N lakan.t.ha, ƒ – – – Jyes.t.hadeva, Sankara, Narayan.a, Acyuta Pis.arot.i and others. A number of citations are available in the works of later scholars which show Ma–dhava’s marvelous achievements in mathematics. Some of these are the values of π correct to 10 places of decimals, imposing corrections to infinite series after certain terms for quick and better results, derivation of Sine & Cosine power series for computing better Sine and Versed- sine tables which are unique by contemporary standard. His π, Sine and Cosine power series were rediscovered about 250 years later in Europe by scholars —Wilhelm Leibniz (1673), Newton (1675), De Lagney (1682), De Moivre (c.1720), Euler (1748) and others. The achievements of Ma–dhava in other areas are still to be explored and will be known only when new important manuscripts composed by him are brought to light through new editions and translations. Some of Ma–dhava’s derivation and results are critically examined in this paper. Key words: Concept of Sine and Cosine functions; Early Indian scholars’ values of π; Lineage of Kerala school of mathematics; Ma–dhava; Ma–dhava’s value of π in series, Ma–dhava’s correction of π series for better result; Methods of derivation; Sine and Cosine power series; Sine and versed sine tables INTRODUCTION I personally feel that Ma–dhava was one of the greatest scholars of mathematics that Kerala had produced during the medieval period.