Dr. Nikola Tesla Bibliography
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Nikola Tesla
Nikola Tesla Nikola Tesla Tesla c. 1896 10 July 1856 Born Smiljan, Austrian Empire (modern-day Croatia) 7 January 1943 (aged 86) Died New York City, United States Nikola Tesla Museum, Belgrade, Resting place Serbia Austrian (1856–1891) Citizenship American (1891–1943) Graz University of Technology Education (dropped out) ‹ The template below (Infobox engineering career) is being considered for merging. See templates for discussion to help reach a consensus. › Engineering career Electrical engineering, Discipline Mechanical engineering Alternating current Projects high-voltage, high-frequency power experiments [show] Significant design o [show] Awards o Signature Nikola Tesla (/ˈtɛslə/;[2] Serbo-Croatian: [nǐkola têsla]; Cyrillic: Никола Тесла;[a] 10 July 1856 – 7 January 1943) was a Serbian-American[4][5][6] inventor, electrical engineer, mechanical engineer, and futurist who is best known for his contributions to the design of the modern alternating current (AC) electricity supply system.[7] Born and raised in the Austrian Empire, Tesla studied engineering and physics in the 1870s without receiving a degree, and gained practical experience in the early 1880s working in telephony and at Continental Edison in the new electric power industry. He emigrated in 1884 to the United States, where he became a naturalized citizen. He worked for a short time at the Edison Machine Works in New York City before he struck out on his own. With the help of partners to finance and market his ideas, Tesla set up laboratories and companies in New York to develop a range of electrical and mechanical devices. His alternating current (AC) induction motor and related polyphase AC patents, licensed by Westinghouse Electric in 1888, earned him a considerable amount of money and became the cornerstone of the polyphase system which that company eventually marketed. -
Radio Control System
Radio Control System The Radio Control System consists of the control transmitter unit held by the operator and the receiver with its associated components in the robot. The Radio Control Transmitter converts movements of the control sticks and switches into a coded radio signal, which is transmitted by radio to the Radio Control Receiver within the robot. The signal is received and then decoded by the micro-controller, which is on the main circuit board in the robot. The micro-controller controls functions based on what was sent from the radio control transmitter. RADIO CONTROL OPERATING INSTRUCTIONS Refer to the diagram showing the radio control transmitter for the location of controls. Check all of the trim adjustments on the transmitter and make sure they are in their center position. Extend the Radio Control Transmitter Antenna 1/4 to 1/2 way. Turn the Radio Control Transmitter on first and then turn on the main robot power switch. It is necessary for the robot to always have an operating signal when it is on, if there is no signal you will not have full control of the robot. The right hand joystick controls movement of the robot's drive wheels. Pushing the stick forward will cause the robot to move forward. Pulling the stick back will cause the robot to move backward. Moving the stick to the right or left will cause the robot to turn to the right or left respectively. Movement is fully proportional so any variation or combination of movement is possible. The horizontal and vertical trim tabs to the left and below the joystick are for centering and should be adjusted periodically. -
Benjamin, Nikola, & Walter: Geniuses Who Maximized Their Creative
Benjamin, Nikola, & Walter: Geniuses Who Maximized Their Creative Energies By Jonathan V. L. Kiser August 2019 Benjamin, Nikola, & Walter: Geniuses Who Maximized Their Creative Energies Table of Contents Section Page # Overview 1 Exhibit 1 – Ben, Nikola & Walter’s First 10 Years 2 Exhibit 2 – Ben, Nikola & Walter Years 11 Through 19 4 Exhibit 3 – Ben, Nikola & Walter’s 20s 7 Exhibit 4 – Ben, Nikola & Walter’s 30s 13 Exhibit 5 – Ben, Nikola & Walter’s 40s 19 Exhibit 6 – Ben, Nikola & Walter’s 50s 25 Exhibit 7 – Ben, Nikola & Walter’s 60s 29 Exhibit 8 – Ben, Nikola & Walter’s 70s 33 Exhibit 9 – Ben, Nikola & Walter’s 80s & 90s 38 Other Insights 43 References 57 About the Author 58 Benjamin, Nikola, & Walter: Geniuses Who Maximized Their Creative Energies By Jonathan V. L. Kiser – August 2019 Overview This report compares the lives of three historical geniuses: Benjamin Franklin, Nikola Tesla, and Walter Russell. By examining their extraordinary lives in a chronological, time-line basis, observations can be drawn relating to their accomplishments, similarities, and differences during all phases of their lives. These comparisons are supplemented with more than 100 public domain photos, drawings, and related images associated with each remarkable man. Additional insights about them are then presented. Here now is a brief overview relating to Ben, Nikola, and Walter. Benjamin Franklin (1706 – 1790) was an American polymath (a person of wide-ranging knowledge or learning) and one of the Founding Fathers of the United States. Franklin was a leading author, printer, political theorist, politician, Freemason, postmaster, scientist, inventor, humorist, civic activist, statesman, and diplomat. -
Ae Outerbridge, Jr
18 4 ANNUAL REPORT OF BOARD OF MANAGERS. Model of canal boat with screw-propellers; also models of ice-boats and boats with feathering paddle-wheel blades. Models of earliest forms of lattice girder bridges. Sectional model of early beam engine with Watt parallel motion and condenser. Model of locomotive engine, by George Stevenson, I816. Sectional model of side-lever engine. Working models of early forms of stationary engines and locomotives. Models by Eastwick, Harrison, Baldwin, and other inventors, of crank motions and various other portions of engines, such as cylinders, etc. Model of Herman's mechanism for converting rectilinear into rotary motion. Beam engine, by Henry Cartwright, model 1842. Model of first World's Fair premium harrow. Model of Bain's printing telegraph, 1844. Various models and working apparatus of Morse and other inventors in the early history of telegraphy. Model of Oliver Evans's " Oructor Amphibolis." Original Yale lock, 1855. Benjamin Franklin's original electrical machine and various other apparatus used by him. In conclusion, it may be stated that all of the working models have been taken apart, cleaned, repaired by skilled mechanics, and all have been operated. Some of these models are displayed in the Library and lecture-room; many others line the walls of the class-rooms, where they are at all times available for educational purposes. Respectfully submitted, A. E. OUTERBRIDGE, JR., PHILADELPHIA, January 8, 1913. Chairman. REPORT OF THE COMMITTEE ON MEETINGS. To the President and Members of The Franklin Institute: During the year ending September 30, 1912, nine stated meetings of the Institute were held under arrangements made by the Committee on Meetings, with the co-operation of the Secretary's office. -
Communications in Asteroseismology
Communications in Asteroseismology Volume 156 November/December, 2008 Communications in Asteroseismology Editor-in-Chief: Michel Breger, [email protected] Editorial Assistant: Daniela Klotz, [email protected] Layout & Production Manager: Paul Beck, [email protected] Language Editor: Natalie Sas, [email protected] Institut f¨ur Astronomie der Universit¨at Wien T¨urkenschanzstraße 17, A - 1180 Wien, Austria http://www.univie.ac.at/tops/CoAst/ [email protected] Editorial Board: Conny Aerts, Gerald Handler, Don Kurtz, Jaymie Matthews, Ennio Poretti Cover Illustration The Milky Way behind the dome of the 40-inch telescope at the Siding Spring Observatory, Australia. Data from this telescope is used in a paper by Handler & Shobbrook in this issue (see page 18). (Photo kindly provided by R. R. Shobbrook) British Library Cataloguing in Publication data. A Catalogue record for this book is available from the British Library. All rights reserved ISBN 978-3-7001-6539-2 ISSN 1021-2043 Copyright c 2008 by Austrian Academy of Sciences Vienna Austrian Academy of Sciences Press A-1011 Wien, Postfach 471, Postgasse 7/4 Tel. +43-1-515 81/DW 3402-3406, +43-1-512 9050 Fax +43-1-515 81/DW 3400 http://verlag.oeaw.ac.at, e-mail: [email protected] Comm. in Asteroseismology Vol. 156, 2008 Introductory Remarks The summer of 2008 was a densely packed season with a number of excellent astero- seismological conferences. CoAst will publish the proceedings of the Wroclaw, Liege and Vienna (JENAM) meetings. In fact, the proceedings of the HELAS Wroclaw conference is mailed to you together with this regular issue. -
Electrical Engineering
SCIENCE MUSEUM SOUTH KENSINGTON HANDBOOK OF THE COLLECTIONS ILLUSTRATING ELECTRICAL ENGINEERING II. RADIO COMMUNICATION By W. T. O'DEA, B.Sc., A.M.I.E.E. Part I.-History and Development Crown Copyright Reseruea LONDON PUBLISHED BY HIS MAJESTY's STATIONERY OFFICI To be purchued directly from H.M. STATIONERY OFFICI at the following addre:11ea Adutral Houae, Kinpway, London, W.C.z; no, George Street, Edinburgh:& York Street, Manchester 1 ; 1, St, Andrew'• Cretccnr, Cudi.lf So, Chichester Street, Belfa1t or through any Booueller 1934 Price 2s. 6d. net CONTENTS PAGB PREFACE 5 ELECTROMAGNETI<: WAVF13 7 DETECTORS - I I EARLY WIRELESS TELEGRAPHY EXPERIMENTS 17 THE DEVELOPMENT OF WIRELESS TELEGRAPHY - 23 THE THERMIONIC vALVE 38 FuRTHER DEVELOPMENTS IN TRANSMISSION 5 I WIRELESS TELEPHONY REcEIVERS 66 TELEVISION (and Picture Telegraphy) 77 MISCELLANEOUS DEVELOPMENTS (Microphones, Loudspeakers, Measure- ment of Wavelength) 83 REFERENCES - 92 INDEX - 93 LIST OF ILLUSTRATIONS FACING PAGE Fig. I. Brookman's Park twin broadcast transmitters -Frontispiece Fig. 2. Hughes' clockwork transmitter and detector, 1878 8 Fig. 3· Original Hertz Apparatus - Fig. 4· Original Hertz Apparatus - Fig. S· Original Hertz Apparatus - 9 Fig. 6. Oscillators and resonators, 1894- 12 Fig. 7· Lodge coherers, 1889-94 - Fig. 8. Magnetic detectors, 1897, 1902 - Fig. 9· Pedersen tikker, 1901 I3 Fig. IO. Original Fleming diode valves, 1904 - Fig. II. Audion, Lieben-Reisz relay, Pliotron - Fig. IZ. Marconi transmitter and receiver, 1896 Fig. IJ. Lodge-Muirhead and Marconi receivers 17 Fig. 14. Marconi's first tuned transmitter, 1899 Fig. IS. 11 Tune A" coil set, 1900 - 20 Fig. 16. Marconi at Signal Hill, Newfoundland, 1901 Fig. -
Microfilms International300 N
INFORMATION TO USERS This was produced from a copy of a document sent to us for microfilming. While the most advanced technological means to photograph and reproduce this document have been used, the quality is heavily dependent upon the quality of the material submitted. The following explanation of techniques is provided to help you understand marking or notations which may appear on this reproduction. 1.The sign or “target” for pages apparently lacking from the document photographed is "Missing Page(s)". If it was possible to obtain the missing page(s) or section, they are spliced into the film along with adjacent pages. This may have necessitated cutting through an image and duplicating adjacent pages to assure you of complete continuity. 2. When an image on the Him is obliterated with a round black mark it is an indication that the film inspector noticed either blurred copy because of movement during exposure, or duplicate copy. Unless we meant to delete copyrighted materials that should hot have been filmed, you will find a good image of the page in the adjacent frame. 3. When a map, drawing or chart, etc., is part of the material being photo graphed the photographer has followed a definite method in “sectioning” the material. It is customary to begin filming at the upper left hand comer of a large sheet and to continue from teft to right in equal sections with small overlaps. If necessary, sectioning is continued again—beginning below the first row and continuing on until complete. 4. For any illustrations that cannot be reproduced satisfactorily by xerography, photographic prints can be purchased at additional cost and tipped into your xerographic copy. -
Development of Intelligent Drone Battery Charging System Based on Wireless Power Transmission Using Hill Climbing Algorithm
Article Development of Intelligent Drone Battery Charging System Based on Wireless Power Transmission Using Hill Climbing Algorithm Ali Rohan 1,* , Mohammed Rabah 1 , Muhammad Talha 1 and Sung-Ho Kim 2 1 Department of Electrical, Electronics and Information Engineering, Kunsan National University, Gunsan-Si 573-360, Korea; [email protected] (M.R.); [email protected] (M.T.) 2 Department of Control and Robotics Engineering, Kunsan National University, Gunsan-Si 573-360, Korea; [email protected] * Correspondence: [email protected]; Tel.: +82-10-2857-6080 Received: 13 September 2018; Accepted: 5 November 2018; Published: 7 November 2018 Abstract: In this work, an advanced drone battery charging system is developed. The system is composed of a drone charging station with multiple power transmitters and a receiver to charge the battery of a drone. A resonance inductive coupling-based wireless power transmission technique is used. With limits of wireless power transmission in inductive coupling, it is necessary that the coupling between a transmitter and receiver be strong for efficient power transmission; however, for a drone, it is normally hard to land it properly on a charging station or a charging device to get maximum coupling for efficient wireless power transmission. Normally, some physical sensors such as ultrasonic sensors and infrared sensors are used to align the transmitter and receiver for proper coupling and wireless power transmission; however, in this system, a novel method based on the hill climbing algorithm is proposed to control the coupling between the transmitter and a receiver without using any physical sensor. The feasibility of the proposed algorithm was checked using MATLAB. -
The Curious Case of U.S. Letters Patent No. 223,898
CHAPTER 5 The Curious Case of U.S. Letters Patent No. 223,898 I have not failed. I’ve just found ten thousand ways that don’t work. —Thomas Edison ho invented the light bulb? This was the topic at hand. Technically, the litigation Wwas between the Edison Electric Light Company and the Mount Morris Electric Light Company, but everyone knew that these were subsidiaries and legal proxies for their parent companies. Even the attorneys litigating this $1 billion case called it simply Edison v. Westinghouse. The issue before them: U.S. Letters Patent No. 223,898, granted to Thomas Edison on January 27, 1880, which described the invention of an “incandescent electric lamp.” Quickly nicknamed the Light Bulb Patent by the press, it was without question the most valuable patent ever granted in the history of the United States. And George Westinghouse was accused of infringing on it. Yet, as Paul Cravath pointed out to his client George Westinghouse, even a problem so simply put might yet admit to many layers of unraveling. In fact, the question hinged on one’s precise definition of the terms involved—“who,” “in- vented,” “the,” and, most importantly, “light bulb.” The first electric lamps had actually been invented almost a cen- tury before, Paul had learned when he’d first begun to research the case. Sir Humphry Davy had publicly demonstrated early “arc lights” in 1809. By attaching a battery to two charcoal sticks, he’d caused a U-shaped thread of electricity to “arc” across the gap between the sticks. The explosion of light was blindingly bright; perfect for light- ing dark outdoor areas, if it could be tamed into safety and reliability. -
Electrification and the Ideological Origins of Energy
A Dissertation entitled “Keep Your Dirty Lights On:” Electrification and the Ideological Origins of Energy Exceptionalism in American Society by Daniel A. French Submitted to the Graduate Faculty as partial fulfillment of the requirements for the Doctor of Philosophy Degree in History _________________________________________ Dr. Diane F. Britton, Committee Chairperson _________________________________________ Dr. Peter Linebaugh, Committee Member _________________________________________ Dr. Daryl Moorhead, Committee Member _________________________________________ Dr. Kim E. Nielsen, Committee Member _________________________________________ Dr. Patricia Komuniecki Dean College of Graduate Studies The University of Toledo December 2014 Copyright 2014, Daniel A. French This document is copyrighted material. Under copyright law, no parts of this document may be reproduced without the express permission of the author. An Abstract of “Keep Your Dirty Lights On:” Electrification and the Ideological Origins of Energy Exceptionalism in American Society by Daniel A. French Submitted to the Graduate Faculty as partial fulfillment of the requirements for the Doctor of Philosophy Degree in History The University of Toledo December 2014 Electricity has been defined by American society as a modern and clean form of energy since it came into practical use at the end of the nineteenth century, yet no comprehensive study exists which examines the roots of these definitions. This dissertation considers the social meanings of electricity as an energy technology that became adopted between the mid- nineteenth and early decades of the twentieth centuries. Arguing that both technical and cultural factors played a role, this study shows how electricity became an abstracted form of energy in the minds of Americans. As technological advancements allowed for an increasing physical distance between power generation and power consumption, the commodity of electricity became consciously detached from the steam and coal that produced it. -
Sheffield's Zi-Qiang Zhu Receives Prestigious IEEE Tesla Award
MagNews 21/07/20 Sheffield’s Zi-Qiang Zhu receives prestigious IEEE Tesla Award rofessor Zi-Qiang Zhu from the University of P Sheffield’s Department of Electronic and Electrical Engineering has received the prestigious 2021 IEEE Nikola Tesla Award for outstanding contributions to the generation and utilisation of electric power. Qiang was awarded for his research which will increase the UK’s supply of clean and affordable energy, recognising his contributions to the design, modelling, control and application of AC permanent magnet machines and drives. He previously received the 2019 IEEE Industry Application Society Outstanding Achievement Award, for the application of electricity to industry. Qiang, from the Department of Electrical and Electronic Engineering, is the Head of the Electrical Machines and Drives (EMD) Research Group, which is a recognised world leader in pioneering research on permanent magnet machines and drives. The Group’s key strengths lie in its integrated fundamental and applied Prof Zi-Qiang Zhu, University of Sheffield research on enabling technologies which are vital to future developments in electrical power Recipient of 2021 IEEE Nikola Tesla Award engineering. Past work with Siemens Gamesa for outstanding contributions to the generation and utilisation of electric power. includes developing novel high reliability, high efficiency, high power density direct-drive permanent magnet generators which helped the company to achieve its goal to be the market leader in offshore wind power. EMD has a proven track record of translating research and development into commercial successes for applications encompassing many different market sectors. An example of this is the long-standing relationship Qiang has with the Midea Group, with whom the Group developed high performance and low cost innovative permanent magnet motors and drives. -
Awards Ceremony
IEEE PowEr & EnErgy SocIEty 2012 gEnEral MEEtIng awardS cErEMony Tuesday, 24 July 2012 Manchester Hyatt Regency San Diego, California USA The Institute of Electrical and Electronics Engineers, Inc. Awards and Recognition Mariesa Crow, Chair COMMITTEE CHAIRS Christopher root B. don russell • IEEE Power & Energy Society • IEEE PES Meritorious Service Award Leadership in Power Award dennis woodford stan horowitz • IEEE PES Uno Lamm HVDC Award • IEEE Power & Energy Society Lifetime Achievement Award ward t. Jewell • IEEE PES Ramakumar Family hamid elahi Renewable Energy Excellence Award • IEEE PES Charles Concordia Power Systems Engineering Award Gören andersson • IEEE PES Outstanding Power marCio szeChtman Engineering Educator Award • IEEE PES Nari Hingorani FACTS Award • IEEE PES Nari Hingorani A. P. sakis meliopoulos Custom Power Award • iEEE PES Outstanding Young Engineer Award wenyuan li • IEEE PES Roy Billinton Power roBert pelleGrino System Reliability Award • IEEE PES Robert P. Noberini Distinguished Contributions to Power dan ward Engineering Professionalism Award • IEEE PES Award for Excellence in Power Distribution Engineering riChard Brown • IEEE PES Technical Paper Awards G. larry Clark • IEEE PES Douglas M. Staszesky edward C. Carlsen Distribution Automation Award • IEEE PES Chapter Awards Steven d. pendarek roBert d. saint • IEEE PES Cyril Veinott • IEEE PES/IAS A.P. Seethapathy Rural Electromechanical Energy Electrification Excellence Award Conversion Award yonGhua sonG howard a. smolleCk • IEEE PES CSEE Yu-Hsiu Ku Electrical • IEEE PES Student Prize Paper Engineering Award Award in Honor of T. Burke Hayes PROGRAM Welcome: Nicholas Abi-Samra • IEEE PES Ramakumar Family Renewable Energy Excellence Award General Chair, PES 2012 General Meeting Ned Mohan Presiding: Noel N.