The Voltage-Controlled Analog Synthesizer
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Minimoog Model D Manual
3 IMPORTANT SAFETY INSTRUCTIONS WARNING - WHEN USING ELECTRIC PRODUCTS, THESE BASIC PRECAUTIONS SHOULD ALWAYS BE FOLLOWED. 1. Read all the instructions before using the product. 2. Do not use this product near water - for example, near a bathtub, washbowl, kitchen sink, in a wet basement, or near a swimming pool or the like. 3. This product, in combination with an amplifier and headphones or speakers, may be capable of producing sound levels that could cause permanent hearing loss. Do not operate for a long period of time at a high volume level or at a level that is uncomfortable. 4. The product should be located so that its location does not interfere with its proper ventilation. 5. The product should be located away from heat sources such as radiators, heat registers, or other products that produce heat. No naked flame sources (such as candles, lighters, etc.) should be placed near this product. Do not operate in direct sunlight. 6. The product should be connected to a power supply only of the type described in the operating instructions or as marked on the product. 7. The power supply cord of the product should be unplugged from the outlet when left unused for a long period of time or during lightning storms. 8. Care should be taken so that objects do not fall and liquids are not spilled into the enclosure through openings. There are no user serviceable parts inside. Refer all servicing to qualified personnel only. NOTE: This equipment has been tested and found to comply with the limits for a class B digital device, pursuant to part 15 of the FCC rules. -
Analog Synthesizer So There Is No Need for Soldering.)
Assembly time: Approximately 20 minutes (The electric circuit comes pre-assembled, Analog Synthesizer so there is no need for soldering.) How to Assemble and Use the Supplement Things you will need Parts in the Kit Phillips screwdriver (No. 1) AA alkaline batteries (4 new) Knobs (5) * Please note that rechargeable NiCd batteries and non-rechargeable Oxyride and nickel-based batteries should not be Washer head screws (7) used due to a high risk of components melting or fire breaking out with these batteries because of accidental short-circuiting or the like. Additionally, because this supplement was designed based on operation at 6 V, it may not operate in the desired way due to an excess of or a deficiency in voltage with the above batteries. Incidentally, most rechargeable batteries provide 1.2 V and Screws (3) Oxyride batteries, 1.7 V. Main unit Cellophane tape Notes for tightening screws The types of screws used for the supplement are those that carve grooves into the plastic as they are inserted (self-threading). The screwdriver most suited to tightening the screws is the #1 JIS screwdriver. When tightening screws, Circuit board firmly press the provided screwdriver straight against the screws and turn. It is said that 70 percent of the force applied is used for pushing against the screw and 30 percent for turning it. Precision screwdrivers are hard to turn, so use a small screwdriver with a grip diameter of about 2 cm. Electrode Slider panel Speaker Cut out the cardboard (Wrapped in cardboard.) case to use as a back cover. -
The Rai Studio Di Fonologia (1954–83)
ELECTRONIC MUSIC HISTORY THROUGH THE EVERYDAY: THE RAI STUDIO DI FONOLOGIA (1954–83) Joanna Evelyn Helms A dissertation submitted to the faculty at the University of North Carolina at Chapel Hill in partial fulfillment of the requirements for the degree of Doctor of Philosophy in the Department of Music. Chapel Hill 2020 Approved by: Andrea F. Bohlman Mark Evan Bonds Tim Carter Mark Katz Lee Weisert © 2020 Joanna Evelyn Helms ALL RIGHTS RESERVED ii ABSTRACT Joanna Evelyn Helms: Electronic Music History through the Everyday: The RAI Studio di Fonologia (1954–83) (Under the direction of Andrea F. Bohlman) My dissertation analyzes cultural production at the Studio di Fonologia (SdF), an electronic music studio operated by Italian state media network Radiotelevisione Italiana (RAI) in Milan from 1955 to 1983. At the SdF, composers produced music and sound effects for radio dramas, television documentaries, stage and film operas, and musical works for concert audiences. Much research on the SdF centers on the art-music outputs of a select group of internationally prestigious Italian composers (namely Luciano Berio, Bruno Maderna, and Luigi Nono), offering limited windows into the social life, technological everyday, and collaborative discourse that characterized the institution during its nearly three decades of continuous operation. This preference reflects a larger trend within postwar electronic music histories to emphasize the production of a core group of intellectuals—mostly art-music composers—at a few key sites such as Paris, Cologne, and New York. Through close archival reading, I reconstruct the social conditions of work in the SdF, as well as ways in which changes in its output over time reflected changes in institutional priorities at RAI. -
Interpretação Em Tempo Real Sobre Material Sonoro Pré-Gravado
Interpretação em tempo real sobre material sonoro pré-gravado JOÃO PEDRO MARTINS MEALHA DOS SANTOS Mestrado em Multimédia da Universidade do Porto Dissertação realizada sob a orientação do Professor José Alberto Gomes da Universidade Católica Portuguesa - Escola das Artes Julho de 2014 2 Agradecimentos Em primeiro lugar quero agradecer aos meus pais, por todo o apoio e ajuda desde sempre. Ao orientador José Alberto Gomes, um agradecimento muito especial por toda a paciência e ajuda prestada nesta dissertação. Pelo apoio, incentivo, e ajuda à Sara Esteves, Inês Santos, Manuel Molarinho, Carlos Casaleiro, Luís Salgado e todos os outros amigos que apesar de se encontraram fisicamente ausentes, estão sempre presentes. A todos, muito obrigado! 3 Resumo Esta dissertação tem como foco principal a abordagem à interpretação em tempo real sobre material sonoro pré-gravado, num contexto performativo. Neste caso particular, material sonoro é entendido como música, que consiste numa pulsação regular e definida. O objetivo desta investigação é compreender os diferentes modelos de organização referentes a esse material e, consequentemente, apresentar uma solução em forma de uma aplicação orientada para a performance ao vivo intitulada Reap. Importa referir que o material sonoro utilizado no software aqui apresentado é composto por músicas inteiras, em oposição às pequenas amostras (samples) recorrentes em muitas aplicações já existentes. No desenvolvimento da aplicação foi adotada a análise estatística de descritores aplicada ao material sonoro pré-gravado, de maneira a retirar segmentos que permitem uma nova reorganização da informação sequencial originalmente contida numa música. Através da utilização de controladores de matriz com feedback visual, o arranjo e distribuição destes segmentos são alterados e reorganizados de forma mais simplificada. -
Imagine Your Art As the New Face of Moog Music's
IMAGINE YOUR ART AS THE NEW FACE OF MOOG MUSIC’S HEADQUARTERS! WELCOME ALL CREATIVES We are excited to be accepting artist submissions for a design that will be the new face of the Moog factory in downtown Asheville, NC. Locals and visitors of our vibrant city have come to know our factory by the iconic synthesizer mural that has adorned the buildingʼs exterior for more than eight years. Now, weʼre ready to breathe new life into the public artwork that represents who we are and the instruments that our employee-owners build inside these four walls. This is where you come in! 1st PLACE WINNER TOP 5 RUNNERS-UP • Moog One 16-Voice Analog Synthesizer ($8,500 value) • Your Choice: Moog Mother-32, DFAM, or Subharmonicon • Your Artwork Displayed on the Moog Factory • Moog Merch Package HOW IT WORKS 1. Synthesize your best ideas of what represents Moog and our creative community. 2. Download the asset pack for artwork templates and specifications on file type and dimension requirements. 3. Submit your custom artwork at www.moogmusic.com/mural by February 19, 2021. Upload your artwork as a high resolution thumbnail that does not exceed 9MB, print files will be requested if you are selected as the winner. You may submit up to three pieces for consideration. 4. Online voting will be open to the public at www.moogmusic.com/mural from January 11 – February 28, 2021. 5. Weʼll select one grand prize winner and five runners-up, and will announce the winners via our email newsletter. The popular public vote will count toward our teamʼs consideration; make sure to share the voting link to your artwork on your website, social media accounts, etc. -
Music 80C History and Literature of Electronic Music Tuesday/Thursday, 1-4PM Music Center 131
Music 80C History and Literature of Electronic Music Tuesday/Thursday, 1-4PM Music Center 131 Instructor: Madison Heying Email: [email protected] Office Hours: By Appointment Course Description: This course is a survey of the history and literature of electronic music. In each class we will learn about a music-making technique, composer, aesthetic movement, and the associated repertoire. Tests and Quizzes: There will be one test for this course. Students will be tested on the required listening and materials covered in lectures. To be prepared students must spend time outside class listening to required listening, and should keep track of the content of the lectures to study. Assignments and Participation: A portion of each class will be spent learning the techniques of electronic and computer music-making. Your attendance and participation in this portion of the class is imperative, since you will not necessarily be tested on the material that you learn. However, participation in the assignments and workshops will help you on the test and will provide you with some of the skills and context for your final projects. Assignment 1: Listening Assignment (Due June 30th) Assignment 2: Field Recording (Due July 12th) Final Project: The final project is the most important aspect of this course. The following descriptions are intentionally open-ended so that you can pursue a project that is of interest to you; however, it is imperative that your project must be connected to the materials discussed in class. You must do a 10-20 minute in class presentation of your project. You must meet with me at least once to discuss your paper and submit a ½ page proposal for your project. -
Musique Algorithmique
[Version adaptée pour un cours commun ATIAM/CURSUS d’un article à paraître dans N. Donin and L. Feneyrou (dir.), Théorie de la composition musicale au XXe siècle, Symétrie, 2012] Musique algorithmique Moreno Andreatta . La plupart des études sur la musique algorithmique soulignent, à juste titre, le caractère systématique et combinatoire de certaines démarches compositionnelles qui ont accompagné l’évolution de la musique occidentale. De l’isorythmie du Moyen Âge aux musikalische Würfelspiele ou « jeux musicaux » attribués à Johann Philipp Kirnberger, Wolfgang Amadeus Mozart, Josef Haydn ou Carl Philipp Emmanuel Bach, l’utilisation de méthodes combinatoires et algorithmiques n’a pas dû attendre l’« implémentation » informatique pour voir le jour1. Fig 0.1 : « Jeux musicaux » (générés par http://sunsite.univie.ac.at/Mozart/dice/) 1 En attendant un article sur la musique algorithmique dans le Grove Music Online, nous renvoyons le lecteur à l’étude de Karlheinz ESSL, « Algorithmic Composition » (The Cambridge Companion to Electronic Music (Nick COLLINS et Julio D’ESCRIVAN, éds.), Cambridge : Cambridge University Press, 2007, p. 107-125) pour une analyse plus large des procédés algorithmiques. On pourrait penser, et c’est l’hypothèse le plus souvent proposée, que c’est l’artifice de l’écriture qui rend possible l’exploration de la combinatoire. Cela est sans doute vrai dans plusieurs répertoires, des polyphonies complexes de Philippe de Vitry ou Guillaume de Machaut aux œuvres sérielles intégrales de la seconde moitié du XXe siècle. Cependant, comme l’ont bien montré certains travaux d’ethnomusicologie et d’ethnomathématique (voir Marc CHEMILLIER, Les Mathématiques naturelles, Paris : Odile Jacob, 2007), l’utilisation d’algorithmes est également présente dans les musiques de tradition orale – une problématique que nous n’aborderons cependant pas ici, car elle dépasse le cadre de cette étude. -
Computer Music
THE OXFORD HANDBOOK OF COMPUTER MUSIC Edited by ROGER T. DEAN OXFORD UNIVERSITY PRESS OXFORD UNIVERSITY PRESS Oxford University Press, Inc., publishes works that further Oxford University's objective of excellence in research, scholarship, and education. Oxford New York Auckland Cape Town Dar es Salaam Hong Kong Karachi Kuala Lumpur Madrid Melbourne Mexico City Nairobi New Delhi Shanghai Taipei Toronto With offices in Argentina Austria Brazil Chile Czech Republic France Greece Guatemala Hungary Italy Japan Poland Portugal Singapore South Korea Switzerland Thailand Turkey Ukraine Vietnam Copyright © 2009 by Oxford University Press, Inc. First published as an Oxford University Press paperback ion Published by Oxford University Press, Inc. 198 Madison Avenue, New York, New York 10016 www.oup.com Oxford is a registered trademark of Oxford University Press All rights reserved. No part of this publication may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording, or otherwise, without the prior permission of Oxford University Press. Library of Congress Cataloging-in-Publication Data The Oxford handbook of computer music / edited by Roger T. Dean. p. cm. Includes bibliographical references and index. ISBN 978-0-19-979103-0 (alk. paper) i. Computer music—History and criticism. I. Dean, R. T. MI T 1.80.09 1009 i 1008046594 789.99 OXF tin Printed in the United Stares of America on acid-free paper CHAPTER 12 SENSOR-BASED MUSICAL INSTRUMENTS AND INTERACTIVE MUSIC ATAU TANAKA MUSICIANS, composers, and instrument builders have been fascinated by the expres- sive potential of electrical and electronic technologies since the advent of electricity itself. -
The Evolution of the Performer Composer
CONTEMPORARY APPROACHES TO LIVE COMPUTER MUSIC: THE EVOLUTION OF THE PERFORMER COMPOSER BY OWEN SKIPPER VALLIS A thesis submitted to the Victoria University of Wellington in fulfillment of the requirements for the degree of Doctor of Philosophy Victoria University of Wellington 2013 Supervisory Committee Dr. Ajay Kapur (New Zealand School of Music) Supervisor Dr. Dugal McKinnon (New Zealand School of Music) Co-Supervisor © OWEN VALLIS, 2013 NEW ZEALAND SCHOOL OF MUSIC ii ABSTRACT This thesis examines contemporary approaches to live computer music, and the impact they have on the evolution of the composer performer. How do online resources and communities impact the design and creation of new musical interfaces used for live computer music? Can we use machine learning to augment and extend the expressive potential of a single live musician? How can these tools be integrated into ensembles of computer musicians? Given these tools, can we understand the computer musician within the traditional context of acoustic instrumentalists, or do we require new concepts and taxonomies? Lastly, how do audiences perceive and understand these new technologies, and what does this mean for the connection between musician and audience? The focus of the research presented in this dissertation examines the application of current computing technology towards furthering the field of live computer music. This field is diverse and rich, with individual live computer musicians developing custom instruments and unique modes of performance. This diversity leads to the development of new models of performance, and the evolution of established approaches to live instrumental music. This research was conducted in several parts. The first section examines how online communities are iteratively developing interfaces for computer music. -
Holmes Electronic and Experimental Music
C H A P T E R 3 Early Electronic Music in the United States I was at a concert of electronic music in Cologne and I noticed that, even though it was the most recent electronic music, the audience was all falling asleep. No matter how interesting the music was, the audience couldn’t stay awake. That was because the music was coming out of loudspeakers. —John Cage Louis and Bebe Barron John Cage and The Project of Music for Magnetic Tape Innovation: John Cage and the Advocacy of Chance Composition Cage in Milan Listen: Early Electronic Music in the United States The Columbia–Princeton Electronic Music Center The Cooperative Studio for Electronic Music Roots of Computer Music Summary Milestones: Early Electronic Music of the United States Plate 3.1 John Cage and David Tudor, 1962. (John Cage Trust) 80 EARLY HISTORY – PREDECESSORS AND PIONEERS Electronic music activity in the United States during the early 1950s was neither organ- ized nor institutional. Experimentation with tape composition took place through the efforts of individual composers working on a makeshift basis without state support. Such fragmented efforts lacked the cohesion, doctrine, and financial support of their Euro- pean counterparts but in many ways the musical results were more diverse, ranging from works that were radically experimental to special effects for popular motion pictures and works that combined the use of taped sounds with live instrumentalists performing on stage. The first electronic music composers in North America did not adhere to any rigid schools of thought regarding the aesthetics of the medium and viewed with mixed skepticism and amusement the aesthetic wars taking place between the French and the Germans. -
A Nonlinear Analysis Framework for Electronic Synthesizer Circuits
A Nonlinear Analysis Framework for Electronic Synthesizer Circuits Fran¸cois Georges Germain Department of Music Research McGill University Montreal, Canada October 2011 A thesis submitted to McGill University in partial fulfillment of the requirements for the degree of Master of Arts. c 2011 Fran¸cois Georges Germain i Abstract This thesis presents a theoretical and experimental study of the nonlinear behaviour of analog synthesizers’ effects. The goal of this thesis is to evaluate and complete current research on nonlinear system modelling, both in and out of the field of music technology. The cases of single-input and multiple-input effects are considered. We first present an electronic analysis of the circuits of common examples of analog effects such as Moog’s lowpass filter and Bode’s ring modulator, extracting the equations of each system. We then discuss the results of experiments made on these systems in order to extract qualitative information about the distortion found in the system input-output relationship. Secondly, we look at the literature for methods used to model single-input nonlinear systems, and we investigate the opportunities to extend these techniques to multi-input systems. We focus on two different modelling approaches. The black-box approach seeks to model the input-output transfer function of the system as closely as possible without any particular assumption on the system. The circuit modelling approach uses the knowledge of electronic component behaviour to extract a transfer function from the known circuit of the system. The results of both approaches are compared to our experiments in order to evaluate their accuracy, identify flaws and, when possible, suggest potential improvements of the methods. -
Talbertronic Festival Workshop I
◊◊ THE OBERLIN COLLEGE CONSERVATORY OF MUSIC PRESENTS ◊◊ Talbert ronic Festival March 2-4, 2017 Oberlin, Ohio Dear Friends, The writer Bill Bryson observed that “few things last for more than a generation in America.” Indeed, even in the slow-to-change world of academic institutions, it is often the case that non-traditional programs or departments come and go in a decade or two. And yet we gather this weekend in honor of John Talbert’s retirement to celebrate the sustained energy and success of the TIMARA Department as it approaches the 50th anniversary of its origins. Our longevity has a lot to do with our adaptability, and our adaptability over the past 38 years has a lot to do with John. Even as he walks out the door, John remains a step ahead, always on the lookout for new methods and technologies but also wise in his avoidance of superficial trends. Take a moment this weekend to consider the number and variety of original compositions, artworks, performances, installations, recordings, instrument designs, and other projects that John has influenced and help bring into being during his time at Oberlin. All the while, John has himself designed and built literally rooms full of unique and reliable devices that invite student and faculty artists to express themselves with sonic and visual media. Every bit of the teaching and learning that transpires each day in TIMARA is influenced by John and will continue to be for years to come. Even when he knows better (which by now is just about always), he is willing to trust his colleagues, humor us faculty and our outlandish requests, and let students make personal discoveries through experimentation.