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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. -
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. -
Moog DFAM – Analog Percussion Synthesizer
Moog DFAM – Analog Percussion Synthesizer This time no Minimoog, no Phatty, no MoogerFooger, no … The Moog DFAM is a real drum computer – an analog synthesizer with step-sequencer. The DFAM (Drummer From Another Mother) can be used as a stand-on device or in any Eurorack modular system. Certainly, the combination of DFAM and MOTHER-32 looks particularly elegant. The DFAM concept is classic, yet flexible: 2 analog oscillators and noise provide the necessary sounds, and the attached patchbay can be used for in-depth sound-programming and cross-patching. Features: SOUND ENGINE: Analog SOUND SOURCES: 2 Oscillators With Square and Triangle Waveforms, 1 White Noise Generator, 1 External Audio Input ANALOG SEQUENCER: 8-Steps With Pitch and Velocity Per-Step SEQUENCER CONTROLS: Tempo, Run/Stop, Trigger, Advance FILTER: 20Hz-20KHz Switchable Low Pass / High Pass 4-Pole Transistor Ladder Filter | 1 Moog DFAM – Analog Percussion Synthesizer ENVELOPES: VCO EG w/ Voltage Controlled Decay and Bipolar Amount Control, VCF EG w/ Voltage Controlled Decay and Bipolar Amount Control, VCA EG w/ Voltage Controlled Decay and Selectable Fast/Slow Attack Time PATCHBAY: 24 x 3.5mm Jacks > INPUTS: Trigger, VCA CV, Velocity, VCA Decay, External Audio, VCF Decay, Noise Level, VCO Decay, VCF Mod, VCO 1 CV, 1→2 FM Amount, VCO 2 CV, Tempo, Run/Stop, Advance/Clock. > OUTPUTS: VCA, VCA EG, VCF EG, VCO EG, VCO 1, VCO 2, Trigger, Velocity, Pitch. AUDIO OUTPUT: ¼” TS Line / ¼” TRS Headphones (Shared Output Jack) “DFAM is the first addition to the Mother ecosystem of synthesizers and presents an expressive hands-on approach to percussive pattern creation. -
El Padre Del Sinte Y, Quizá, El Hombre Más Influyente En La
Pioneros FM BOB MOOG La gente corriente conoce muy pocos nombres de creadores de instrumentos –Stradivarius, Hammond, Wurlitzer, Fender, Gibson… y por supuesto, Moog OB MOOG, en una revista de electrónica. EL padre del De repente, en plena adolescencia, sintetizador y, “El padre del sinte y, ya estaba haciendo y vendiendo kits con quizá, el hombre su pequeña empresa R.A. Moog Co. más influyente quizá, el hombre más En 1961, siendo todavía un estudiante, en la música publicó un diseño de theremin a durante las transistores del cual vendió más de mil últimas cinco influyente en la música unidades, bien como kits de montaje Bdécadas, murió el pasado 21 de Agosto. de los últimos 50 años” o como instrumentos finalizados. Tenía 71 años –una edad respetable para A partir de entonces, conoció muchos, pero no para él. Cualquiera al pionero de la música electrónica que haya podido compartir algún Raymond Scott, quien producía jingles momento con el entrañable Bob antes para importantes cadenas de TV de que le diagnosticaran un tumor cerebral en disfrutar durante unas horas de su inspiradora, con su enorme muro de equipos electrónicos. Abril de este mismo año, te confirmará que carismática y entrañable compañía. Es posible que aquello le inspirase, porque estaba lleno de energía, humor y vitalidad, así Por no molestar, Moog prefería viajar en tren a principios de los 60, Moog presentó, que es una auténtica pena que no haya podido o en autobús antes que aceptar el ofrecimiento de posiblemente, la mayor revolución de la música seguir algunas décadas más entre nosotros. -
User's Manual Anisotropic Synth Engine
ANISOTROPIC SYNTH ENGINE USER’S MANUAL Animoog is a professional polyphonic synthesizer that carries on Dr. Robert STARTUP PAGE- Startup loads the default preset and displays the X/Y PAD (8x16 Moog's exploration of touch-surface technologies to create new and expressive grid) which corresponds top to bottom with the 8 dynamically evolving waveforms musical instruments. selected in the TIMBRE array page. Active voices are displayed as colored dots with modulation in the X/Y space shown as comet trails. The resulting output waveform is The new Anisotropic Synthesis Engine (ASE) is the heart of Animoog. It is a dynamic displayed on the X/Y PAD in real time. waveform animator comprised of an X/Y grid with 8 TIMBRES containing 16 waveforms each. These TIMBRES include sources derived from Moog synthesizers, the MF-103 12-Stage Phaser, and the MF-105 MURF. The waveform morphs and evolves as ASE is TABS: Touch each of the tabs (X/Y PAD, KB SCALE, ENV/MOD, TIMBRE, and SETUP) modulated throughout the X/Y space, allowing you to see and hear dramatic changes of to display that page's parameters. To the right are MODULES for the FILTER, PATH, timbre in real time. This constantly evolving soundscape is then fed into a traditional and ORBIT (left slot), and DELAY, THICK, and RECORDER (right slot). Touch the up or Moog-style synthesis architecture including classic Moog ladder filters with overdrive. down arrows to cycle through each module. Below the display screen is the PRESET selector. Tap the PRESET bar to open the preset list. -
Real-Time Timbre Transfer and Sound Synthesis Using DDSP
REAL-TIME TIMBRE TRANSFER AND SOUND SYNTHESIS USING DDSP Francesco Ganis, Erik Frej Knudesn, Søren V. K. Lyster, Robin Otterbein, David Sudholt¨ and Cumhur Erkut Department of Architecture, Design, and Media Technology Aalborg University Copenhagen, Denmark https://www.smc.aau.dk/ March 15, 2021 ABSTRACT Neural audio synthesis is an actively researched topic, having yielded a wide range of techniques that leverages machine learning architectures. Google Magenta elaborated a novel approach called Differ- ential Digital Signal Processing (DDSP) that incorporates deep neural networks with preconditioned digital signal processing techniques, reaching state-of-the-art results especially in timbre transfer applications. However, most of these techniques, including the DDSP, are generally not applicable in real-time constraints, making them ineligible in a musical workflow. In this paper, we present a real-time implementation of the DDSP library embedded in a virtual synthesizer as a plug-in that can be used in a Digital Audio Workstation. We focused on timbre transfer from learned representations of real instruments to arbitrary sound inputs as well as controlling these models by MIDI. Furthermore, we developed a GUI for intuitive high-level controls which can be used for post-processing and manipulating the parameters estimated by the neural network. We have conducted a user experience test with seven participants online. The results indicated that our users found the interface appealing, easy to understand, and worth exploring further. At the same time, we have identified issues in the timbre transfer quality, in some components we did not implement, and in installation and distribution of our plugin. The next iteration of our design will address these issues. -
Presented at ^Ud,O the 99Th Convention 1995October 6-9
Tunable Bandpass Filters in Music Synthesis 4098 (L-2) Robert C. Maher University of Nebraska-Lincoln Lincoln, NE 68588-0511, USA Presented at ^ uD,o the 99th Convention 1995 October 6-9 NewYork Thispreprinthas been reproducedfrom the author'sadvance manuscript,withoutediting,correctionsor considerationby the ReviewBoard. TheAES takesno responsibilityforthe contents. Additionalpreprintsmay be obtainedby sendingrequestand remittanceto theAudioEngineeringSocietY,60 East42nd St., New York,New York10165-2520, USA. All rightsreserved.Reproductionof thispreprint,or anyportion thereof,isnot permitted withoutdirectpermissionfromthe Journalof theAudio EngineeringSociety. AN AUDIO ENGINEERING SOCIETY PREPRINT TUNABLE BANDPASS FILTERS IN MUSIC SYNTHESIS ROBERT C. MAHER DEPARTMENT OF ELECTRICAL ENGINEERING AND CENTERFORCOMMUNICATION AND INFORMATION SCIENCE UNIVERSITY OF NEBRASKA-LINCOLN 209N WSEC, LINCOLN, NE 68588-05II USA VOICE: (402)472-2081 FAX: (402)472-4732 INTERNET: [email protected] Abst/act: Subtractive synthesis, or source-filter synthesis, is a well known topic in electronic and computer music. In this paper a description is given of a flexible subtractive synthesis scheme utilizing a set of tunable digital bandpass filters. Specific examples and applications are presented for realtime subtractive synthesis of singing and other musical signals. 0. INTRODUCTION Subtractive (or source-filter) synthesis is used widely in electronic and computer music applications. Subtractive synthesis general!y involves a source signal with a broad spectrum that is passed through a filter. The properties of the filter largely define the shape of the output spectrum by attenuating specific frequency ranges, hence the name subtractive synthesis [1]. The subtractive synthesis model is appropriate for the wide class of physical systems in which an input source drives a passive acoustical or mechanical system. -
UCLA Electronic Theses and Dissertations
UCLA UCLA Electronic Theses and Dissertations Title Performing Percussion in an Electronic World: An Exploration of Electroacoustic Music with a Focus on Stockhausen's Mikrophonie I and Saariaho's Six Japanese Gardens Permalink https://escholarship.org/uc/item/9b10838z Author Keelaghan, Nikolaus Adrian Publication Date 2016 Peer reviewed|Thesis/dissertation eScholarship.org Powered by the California Digital Library University of California UNIVERSITY OF CALIFORNIA Los Angeles Performing Percussion in an Electronic World: An Exploration of Electroacoustic Music with a Focus on Stockhausen‘s Mikrophonie I and Saariaho‘s Six Japanese Gardens A dissertation submitted in partial satisfaction of the requirements for the degree of Doctor of Musical Arts by Nikolaus Adrian Keelaghan 2016 © Copyright by Nikolaus Adrian Keelaghan 2016 ABSTRACT OF THE DISSERTATION Performing Percussion in an Electronic World: An Exploration of Electroacoustic Music with a Focus on Stockhausen‘s Mikrophonie I and Saariaho‘s Six Japanese Gardens by Nikolaus Adrian Keelaghan Doctor of Musical Arts University of California, Los Angeles, 2016 Professor Robert Winter, Chair The origins of electroacoustic music are rooted in a long-standing tradition of non-human music making, dating back centuries to the inventions of automaton creators. The technological boom during and following the Second World War provided composers with a new wave of electronic devices that put a wealth of new, truly twentieth-century sounds at their disposal. Percussionists, by virtue of their longstanding relationship to new sounds and their ability to decipher complex parts for a bewildering variety of instruments, have been a favored recipient of what has become known as electroacoustic music. -
Computationally Efficient Music Synthesis
HELSINKI UNIVERSITY OF TECHNOLOGY Department of Electrical and Communications Engineering Laboratory of Acoustics and Audio Signal Processing Jussi Pekonen Computationally Efficient Music Synthesis – Methods and Sound Design Master’s Thesis submitted in partial fulfillment of the requirements for the degree of Master of Science in Technology. Espoo, June 1, 2007 Supervisor: Professor Vesa Välimäki Instructor: Professor Vesa Välimäki HELSINKI UNIVERSITY ABSTRACT OF THE OF TECHNOLOGY MASTER’S THESIS Author: Jussi Pekonen Name of the thesis: Computationally Efficient Music Synthesis – Methods and Sound Design Date: June 1, 2007 Number of pages: 80+xi Department: Electrical and Communications Engineering Professorship: S-89 Supervisor: Professor Vesa Välimäki Instructor: Professor Vesa Välimäki In this thesis, the design of a music synthesizer for systems suffering from limitations in computing power and memory capacity is presented. First, different possible syn- thesis techniques are reviewed and their applicability in computationally efficient music synthesis is discussed. In practice, the applicable techniques are limited to additive and source-filter synthesis, and, in special cases, to frequency modulation, wavetable and sampling synthesis. Next, the design of the structures of the applicable techniques are presented in detail, and properties and design issues of these structures are discussed. A major implemen- tation problem is raised in digital source-filter synthesis, where the use of classic wave- forms, such as sawtooth wave, as the source signal is challenging due to aliasing caused by waveform discontinuities. Methods for existing bandlimited waveform synthesis are reviewed, and a new approach using polynomial bandlimited step function is pre- sented in detail with design rules for the applicable polynomials. -
User's Manual
USER’S MANUAL PROGRAMMING: Thomas Diligent Robert Bocquier Adrien Courdavault Mathieu Nocenti SOUND DESIGN: Luca Torre (Multis) Michael Hosker (All) Ted James (Jupiter8V) Matthew Sevant (ProphetV) Knowlton Walsh (MiniV) Matt Sterling (Arp 2600V) Ted James (CS80V) MANUAL: Randy Lee Pierce Warnecke Tomoya Fukushi Noritaka Ubukata Antoine Back Thomas Diligent DESIGN: Shaun Ellwood Morgan Perrier © ARTURIA SA – 1999-2014 – All rights reserved. 30, Chemin du Vieux Chene 38240 Meylan FRANCE http://www.arturia.com Information contained in this manual is subject to change without notice and does not represent a commitment on the part of Arturia. The software described in this manual is provided under the terms of a license agreement or non-disclosure agreement. The software license agreement specifies the terms and conditions for its lawful use. No part of this manual may be produced or transmitted in any form or by any purpose other than purchaser’s personal use, without the express written permission of ARTURIA S.A. All other products, logos or company names quoted in this manual are trademarks or registered trademarks of their respective owners. October 2014 edition 2 ARTURIA – Analog Lab – USER’S MANUAL Thank you for purchasing Arturia’s Analog Lab! This manual covers the features and operation of Arturia’s Analog Lab, a software synthesizer that allows you to play and modify over 5,000 sounds. After the purchase of this software you will receive its serial number and an unlock code by e-mail. This information enables you to register the software online. Once you have registered your software you will receive an activation code by e-mail that will allow you to authorize the software for use on your computer. -
Rack Mount Edition by R.Stephen Dunnington
USER’s MANUAL for the Rack Mount Edition By R.Stephen Dunnington Here it is – the Minimoog Voyager Rack Mount Edition®. Moog Music has put more than 30 years of experience with analog synthesizer technology into the design of this instrument to bring you the fattest lead synthesizer since the minimoog was introduced in 1970. We’ve done away with the things that made 30-year- old analog synthesizers difficult – the tuning instability, the lack of patch memory, and the lack of compatibility with MIDI gear. We’ve kept the good parts – the rugged construction, the fun of changing a sound with knobs in real time, and the amazing, warm, fat, pleasing analog sound. The Voyager is our invitation to you to explore analog synthesis and express yourself. It doesn’t matter what style of music you play – the Voyager is here to help you tear it up in the studio, on stage, or in the privacy of your own home. Have fun! Acknowledgements – Thanks to Bob Moog for designing yet another fantastic music making machine! Thanks are also due to the Moog Music Team, Rudi Linhard of Lintronics for his amazing software, Brian Kehew, Nigel Hopkins, and all the great folks who contributed design ideas, and of course, you – the Moog Music customer. TABLE OF CONTENTS: I. Getting Started……………………………………………………... 2 II. The Basics of Analog Synthesis…………………………………… 5 III. Basic MIDI................................................................................ 12 IV. The Voyager’s Features…………………………………………… 13 V. The Voyager’s Components A. Mixer……………………………………………………………... 17 B. Oscillators……………………………………………………….. 19 C. Filters…………………………………………………………….. 22 D. Envelope Generators………………………………………….. 26 E. Audio Outputs…………………………………………………… 28 F. -
Hugh Le Caine: Pioneer of Electronic Music in Canada Gayle Young
Document généré le 25 sept. 2021 13:04 HSTC Bulletin Journal of the History of Canadian Science, Technology and Medecine Revue d’histoire des sciences, des techniques et de la médecine au Canada Hugh Le Caine: Pioneer of Electronic Music in Canada Gayle Young Volume 8, numéro 1 (26), juin–june 1984 URI : https://id.erudit.org/iderudit/800181ar DOI : https://doi.org/10.7202/800181ar Aller au sommaire du numéro Éditeur(s) HSTC Publications ISSN 0228-0086 (imprimé) 1918-7742 (numérique) Découvrir la revue Citer cet article Young, G. (1984). Hugh Le Caine: Pioneer of Electronic Music in Canada. HSTC Bulletin, 8(1), 20–31. https://doi.org/10.7202/800181ar Tout droit réservé © Canadian Science and Technology Historical Association / Ce document est protégé par la loi sur le droit d’auteur. L’utilisation des Association pour l'histoire de la science et de la technologie au Canada, 1984 services d’Érudit (y compris la reproduction) est assujettie à sa politique d’utilisation que vous pouvez consulter en ligne. https://apropos.erudit.org/fr/usagers/politique-dutilisation/ Cet article est diffusé et préservé par Érudit. Érudit est un consortium interuniversitaire sans but lucratif composé de l’Université de Montréal, l’Université Laval et l’Université du Québec à Montréal. Il a pour mission la promotion et la valorisation de la recherche. https://www.erudit.org/fr/ 20 HUGH LE CAINE: PIONEER OF ELECTRONIC MUSIC IN CANADA Gayle Young* (Received 15 November 1983; Revised/Accepted 25 June 1984) Throughout history, technology and music have been closely re• lated. Technological developments of many kinds have been used to improve musical instruments.