THE COMPLETE SYNTHESIZER: a Comprehensive Guide by David Crombie (1984)

Total Page:16

File Type:pdf, Size:1020Kb

THE COMPLETE SYNTHESIZER: a Comprehensive Guide by David Crombie (1984) THE COMPLETE SYNTHESIZER: A Comprehensive Guide By David Crombie (1984) Digitized by Neuronick (2001) TABLE OF CONTENTS TABLE OF CONTENTS...........................................................................................................................................2 PREFACE.................................................................................................................................................................5 INTRODUCTION ......................................................................................................................................................5 "WHAT IS A SYNTHESIZER?".............................................................................................................................5 CHAPTER 1: UNDERSTANDING SOUND .............................................................................................................6 WHAT IS SOUND? ...............................................................................................................................................7 THE THREE ELEMENTS OF SOUND .................................................................................................................7 PITCH ...................................................................................................................................................................8 STANDARD TUNING............................................................................................................................................8 THE RESPONSE OF THE HUMAN EAR.............................................................................................................9 FREQUENCY AND MUSIC ..................................................................................................................................9 TIMBRE.................................................................................................................................................................9 LOUDNESS ....................................................................................................................................................... 10 PERIODIC AND APERIODIC WAVESHAPES.................................................................................................. 11 ADDITIVE AND SUBTRACTIVE SYNTHESIS .................................................................................................. 11 RESONANCE .................................................................................................................................................... 11 WAVEFORMS.................................................................................................................................................... 12 THE SQUARE WAVE ........................................................................................................................................ 12 THE RECTANGULAR, OR PULSE WAVE........................................................................................................ 13 THE SAWTOOTH WAVE .................................................................................................................................. 14 THE TRIANGLE WAVE ..................................................................................................................................... 14 OVERTONES..................................................................................................................................................... 14 CHAPTER 2: THE SYNTHESIZER VOICE MODULE.......................................................................................... 15 INTRODUCTION................................................................................................................................................ 15 VOLTAGE CONTROL........................................................................................................................................ 16 THE CONTROLLER .......................................................................................................................................... 17 THE GATE PULSE ............................................................................................................................................ 18 THE VOLTAGE CONTROLLED OSCILLATOR ................................................................................................ 19 PHASE ............................................................................................................................................................... 19 THE SINGLE OSCILLATOR VOICE MODULE ................................................................................................. 21 THE SUB-OCTAVE SQUARE WAVE................................................................................................................ 21 PULSE WIDTH MODULATION ......................................................................................................................... 21 THE NOISE SOURCE ....................................................................................................................................... 23 AUDIO MIXER ................................................................................................................................................... 23 A TYPICAL SIGNAL GENERATOR BANK........................................................................................................ 24 THE FILTER....................................................................................................................................................... 24 FILTER RESONANCE....................................................................................................................................... 27 THE EFFECT OF THE FILTER ......................................................................................................................... 28 KEYBOARD TRACKING ................................................................................................................................... 29 THE AMPLIFIER................................................................................................................................................ 30 THE ENVELOPE GENERATOR........................................................................................................................ 30 THE LOW FREQUENCY OSCILLATOR (LFO)................................................................................................. 32 RANDOM. OR SAMPLE-AND-HOLD WAVEFORMS ....................................................................................... 33 PERIODIC VARIATION OF PITCH WITH TIME (LFO + VCO) ......................................................................... 33 PERIODIC VARIATION OF TIMBRE WITH TIME (LFO + VCF) -.................................................................... 35 PERIODIC VARIATION OF LOUDNESS WITH TIME (LFO + VCA) ................................................................ 35 APERIODIC VARIATION OF PITCH WITH TIME (ENVELOPE GENERATOR + VCO) .................................. 35 APERIODIC VARIATION OF TIMBRE WITH TIME (ENVELOPE GENERATOR + VCF)................................ 36 APERIODIC VARIATION OF AMPLITUDE WITH TIME (ENVELOPE GENERATOR + VCF)......................... 38 THE HIGH PASS FILTER (STATIC).................................................................................................................. 41 CROSS MODULATION ..................................................................................................................................... 41 RING MODULATION ......................................................................................................................................... 41 THE KEYBOARD AND PERFORMANCE CONTROLS.................................................................................... 42 PITCHBEND ...................................................................................................................................................... 42 MODULATION AMOUNT .................................................................................................................................. 43 2 THE WHEELS.................................................................................................................................................... 43 THE LEVER ....................................................................................................................................................... 43 THE RIBBON CONTROL .................................................................................................................................. 43 THE TOUCH STRIP........................................................................................................................................... 43 THE JOYSTICK ................................................................................................................................................. 43 PROPORTIONAL PRESSURE PADS............................................................................................................... 44 THE TOUCH SENSITIVE KEYBOARD ............................................................................................................. 44 PORTAMENTO AND GLISSANDO................................................................................................................... 44 CHAPTER 3: TYPES OF SYNTHESIZER...........................................................................................................
Recommended publications
  • 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.
    [Show full text]
  • Modular Synthesizers
    Modular Synthesizers A Brief History and Functional Description of the Modular Music Synthesizer • James Husted Synthwerks, LLC Sunday, March 24, 13 Mod•u•lar - adjective French modulaire or directly from Modern Latin modularis, from Latin modulus "a small measure" 1 : of, relating to, or based on a module or a modulus 2 : constructed with standardized units or dimensions for flexibility and variety in use, as in modular furniture 3 : composed of interchangeable units (!rst recorded 1936) Sunday, March 24, 13 Syn•the•sis - noun Etymology: Greek, from syntithenai to put together 1 : the composition or combination of parts or elements so as to form a whole 2 : the combining of often diverse conceptions into a coherent whole; also : the complex so formed Sunday, March 24, 13 Who’s on first? • 1837 - C.G. Page (Salem. Mass) - !rst to produce electronically generated sound (not necessarily associated with a musical instrument). • 1885 - Person and Ernst Lorenz -'Elektrisches Musikinstrument' - the !rst musical instrument designed to produce electrically generated sound. • 1897 - Taddaeus Cahills - Telharmonium - electromechanical instrument. • 1936 - Oskar Sala - Mixturtrautonium - !rst synth using Subharmonic synthesis • 1939 - Homer Dudley invents the Parallel Bandpass Vocoder (VODER) - A key operated speech synthesizer • 1940 - Homer Dudley invents the The Voder speech synthesizer as a way to transmit speech over telephone lines • 1948 - Hugh LeCaine - Electronic Sackbut - First voltage-controlled synthesizer • 1948 - Dr. Raymond Scott - Wall of Sound - First polyphonic Sequencing Workstation (electromechanical) and the Electronum - !rst sequencer. • 1950 - CSIR - Mk 1 - The !rst known use of a digital computer for the purpose playing music • 1956 - Louie and Bebe Barron - Produced the !rst all-electronic musical score for a major motion picture - MGM's 'Forbidden Planet' • 1957 - Max V.
    [Show full text]
  • PRODUCT CATALOG WINTER 2014 the Original Red Keyboards the Nord Factory Is Located in the Creative Area of Stockholm Also Known As Sofo, in the District of Södermalm
    Nord Keyboards Product Catalog Winter Catalog Product Keyboards Nord SYNTHESIZERS • STAGE PIANOS • COMBO ORGAN Handmade in Sweden by Clavia DMI AB 2014 PRODUCT CATALOG WINTER 2014 The Original Red Keyboards The Nord factory is located in the creative area of Stockholm also known as SoFo, in the district of Södermalm. With everything located in the same building, communication between development and production is only a matter of walking a few meters. We are proud to say all our Nord products are assembled by hand and they all go through a series of tough tests to ensure they’ll be ready for a long and happy life ‘on the road’. CONTENTS SYNTHESIZERS NORD LEAD A1 6 NEW NORD LEAD 4 14 NORD DRUM 2 22 STAGE PIANOS NORD ELECTRO 4 26 NORD PIANO 2 34 NORD STAGE 2 40 COMBO ORGAN NORD C2D 48 SOUND LIBRARIES 56 Manufacturer: Clavia DMI AB, Box 4214, SE-102 65 Stockholm, Sweden Phone: +46 8 442 73 60 | Fax: +46 8 644 26 50 | Email: [email protected] | www.nordkeyboards.com 3 IT ALL STARTED BACK IN 1983... In 1983 founder Hans Nordelius created the Digital In 2001 the first Nord Electro was released, In 2008 we released the Nord Electro 3 and the Percussion Plate 1 – the first drum pad allowing for introducing stunning emulations of classic vintage exclusively licensed sounds from the Mellotron and dynamic playing using sampled sounds. The DPP1 electro-mechanical instruments with a level of Chamberlin. The Electro 3 became one of the most was an instant success and soon thereafter the portability generally not associated with the original successful products we’ve ever made.
    [Show full text]
  • Accordion Electronic Keyboard Electric Organ
    Accordion Electronic Keyboard Electric Organ Technical Requirements & Discussion Questions for Recorded Graded Exams The following list of technical requirements should be performed to make up the Technical Work component of the exam for: • Accordion (pp.1-5 • Electronic Keyboard (pp.!-1" • Electric Organ (pp. 11-1# Candidates may choose which scales or arpeggios to perform but should& where possible& select a variety of different ke%s. Close attention should be paid to instructions on articulation and dynamics. Further guidelines on specific requirements for each grade (such as the set scales for each grade and instructions on hands together or separate performance) can be found in the rele'ant L$*+ syllabus. Accordion Grade Technical Requirements Scales ,ne ma-or scale ,ne minor scale C chromatic scale .ellow shake in C "hords - a mixture of full and broken chords should be performed in a variety of ke%s and in'ersions: one ma-or one minor one augmented one dominant 7th one diminished 7th Discussion Questions .oth questions to be answered at an% point during the exam: • Which of the pieces you pla%ed today is your fa'ourite and wh%0 • What is the mood of this piece0 1 Grade $% Technical Requirements Scales ,ne ma-or scale ,ne minor scale C chromatic scale .ellow shake in C "hords - a mixture of full and broken chords should be performed in a variety of ke%s and in'ersions: two ma-or two minor one augmented one dominant 7ths one diminished 7ths Discussion Questions .oth questions to be answered at an% point during the exam: • Which of
    [Show full text]
  • The Vox Continental
    Review: The Vox Continental ANDY BURTON · FEB 12, 2018 Reimagining a Sixties Icon The original Vox Continental, rst introduced by British manufacturer Jennings Musical Industries in 1962, is a classic “combo organ”. This sleek, transistor-based portable electric organ is deeply rooted in pop-music history, used by many of the biggest rock bands of the ’60’s and beyond. Two of the most prominent artists of the era to use a Continental as a main feature of their sound were the Doors (for example, on their classic 1967 breakthrough hit “Light My Fire”) and the Animals (“House Of The Rising Sun”). John Lennon famously played one live with the Beatles at the biggest-ever rock show to date, at New York’s Shea Stadium in 1965. The Continental was bright orange-red with reverse-color keys, which made it stand out visually, especially on television (which had recently transitioned from black-and-white to color). The sleek design, as much as the sound, made it the most popular combo organ of its time, rivaled only by the Farsa Compact series. The sound, generated by 12 transistor-based oscillators with octave-divider circuits, was thin and bright - piercing even. And decidedly low-delity and egalitarian. The classier, more lush-sounding and expensive Hammond B-3 / Leslie speaker combination eectively required a road crew to move around, ensuring that only acts with a big touring budget could aord to carry one. By contrast, the Continental and its combo- organ rivals were something any keyboard player in any band, famous or not, could use onstage.
    [Show full text]
  • MX300 User Guide IMPORTANT SAFETY INSTRUCTIONS
    Stereo Reverb MX300 Effects Procesor MX300 User Guide IMPORTANT SAFETY INSTRUCTIONS WARNING FOR YOUR PROTECTION READ THE FOLLOWING: READ THESE INSTRUCTIONS. KEEP THESE INSTRUCTIONS. HEED ALL WARNINGS. FOLLOW ALL INSTRUCTIONS. The symbols shown above are internationally accepted symbols that warn of potential hazards with electrical products. The lightning flash with arrowpoint in an equilateral triangle means DO NOT USE THIS APPARATUS NEAR WATER. that there are dangerous voltages present within the unit. The exclamation point in an equilateral triangle indicates that it is CLEAN ONLY WITH A DRY CLOTH. necessary for the user to refer to the owner’s manual. FOR INDOOR USE ONLY. These symbols warn that there are no user serviceable parts inside the unit. Do not open the unit. Do not attempt to service the unit DO NOT BLOCK ANY OF THE VENTILATION OPENINGS. INSTALL IN ACCORDANCE yourself. Refer all servicing to qualified personnel. Opening the WITH THE MANUFACTURER’S INSTRUCTIONS. chassis for any reason will void the manufacturer’s warranty. Do not get the unit wet. If liquid is spilled on the unit, shut it off DO NOT INSTALL NEAR ANY HEAT SOURCES SUCH AS RADIATORS, HEAT REGISTERS, immediately and take it to a dealer for service. Disconnect the unit STOVES, OR OTHER APPARATUS (INCLUDING AMPLIFIERS) THAT PRODUCE HEAT. during storms to prevent damage. ONLY USE ATTACHMENTS/ACCESSORIES SPECIFIED BY THE MANUFACTURER. The following is indicative of low altitude use; do not use this product above UNPLUG THIS APPARATUS DURING LIGHTNING STORMS OR WHEN UNUSED FOR 2000m. LONG PERIODS OF TIME. Do not defeat the safety purpose of the polarized or grounding-type plug.
    [Show full text]
  • USING MICROPHONE ARRAYS to RECONSTRUCT MOVING SOUND SOURCES for AURALIZATION 1 Introduction
    USING MICROPHONE ARRAYS TO RECONSTRUCT MOVING SOUND SOURCES FOR AURALIZATION Fanyu Meng, Michael Vorlaender Institute of Technical Acoustics, RWTH Aachen University, Germany {[email protected]) Abstract Microphone arrays are widely used for sound source characterization as well as for moving sound sources. Beamforming is one of the post processing methods to localize sound sources based on microphone array in order to create a color map (the so-called “acoustic camera”). The beamformer response lies on the array pattern, which is influenced by the array shape. Irregular arrays are able to avoid the spatial aliasing which causes grating lobes and degrades array performance to find the spatial positions of sources. With precise characteristics from the beamformer output, the sources can be reconstructed regarding not only spatial distribution but also spectra. Therefore, spectral modeling methods, e.g. spectral modeling synthesis (SMS) can be combined to the previous results to obtain source signals for auralization. In this paper, we design a spiral microphone array to obtain a specific frequency range and resolution. Besides, an unequal-spacing rectangular array is developed as well to compare the performance with the spiral array. Since the second array is separable, Kronecker Array Transform (KAT) can be used to accelerate the beamforming calculation. The beamforming output can be optimized by using deconvolution approach to remove the array response function which is convolved with source signals. With the reconstructed source spectrum generated from the deconvolved beamforming output, the source signal is synthesized separately from tonal and broadband components. Keywords: auralization, synthesizer, microphone arrays, beamforming, SMS PACS no.
    [Show full text]
  • Piano / Keyboard for Absolute Beginners
    Learn How to Play Piano / Keyboard For Absolute Beginners A Self Tuition Book For Adults and Teenagers! Martin Woodward ISBN: Copyright © Martin Woodward 2015 All rights reserved Printing for buyers use only is permitted Enquires: http://gonkmusic.com 2 Copyright © Martin Woodward 2015 - www.gonkmusic.com 2 Acknowledgements To all the fantastic musicians who I’ve had the privilege of working with back in the 1960s / 70s including: Pip Williams (guitarist / record producer); Tex Marsh (drummer); Roger Flavell (bassist); Kevin Fogarty (guitarist); Ralph Denyer (singer / songwriter); Phil Childs (bassist); Jim Smith (drums); George Lee (saxophonist); Ron Thomas (bassist); Emile Ford (No. 1 UK singer / songwriter). To my early mentors: Alan Simonds (guitarist / vocalist); big bruv Steve (guitarist) and Mr. Henley (my inspirational music teacher at Warlingham School 1960 - 65). And to Myriad Software: http://www.myriad-online.com for the Melody Assistant music notation software which was used for the production of this book. - Thanks! 3 Copyright © Martin Woodward 2015 - www.gonkmusic.com 3 4 Copyright © Martin Woodward 2015 - www.gonkmusic.com 4 Contents Introduction ............................................................................................................. 11 Get the Best from this Book ................................................................................ 12 Using the links ..................................................................................................... 12 Trust Your Self ...................................................................................................
    [Show full text]
  • The Synthi VCS3(Mk2) Matrix Interface Module
    The Synthi VCS3(mk2) Matrix Interface Module Same as AKS unit but in Custom built Polished Afrormosia hardwood case to match the VCS3 styling. Connect to any VCS3 jack socket for common ground Output signals from Matrix to external IMPORTANT! DO NOT FORGET TO CONNECT modular synthesizer effects unit etc. Signals from THIS OTHERWISE UNIT external modular WILL NOT WORK! synthesizer or effects unit into the Matrix inputs SYNTHI PRESTO CONNECTOR Connects to VCS3(mk2)via presto socket Nn Using the VCS3(mk2)Matrix Interface Module This unit is functionally identical to a similar unit I designed for interfacing to the Synthi AKS. This one however is built into a cool looking polished afrormosia hardwood case. This is exactly the same wood as used on the VCS3 (mk1 or mk2). The front panel is cnc engraved satin anodised silver that complements that of the silver panelled VCS3 mk2’s. Its a complete interface unit for the VCS3(mk2) Matrix...or in other words a 'breakout' box whereby the row/column signals of the Matrix are taken out to 3.5mm jack sockets. This allows powerful interfacing options of the VCS3 with an external modular synthesizer like eg Doepfer-Eurorack and/or external effects racks etc. Note that VCS3 mk1’s don’t have a presto connector unless it has been added as a mod. Therefore this unit is designed only for use with the VCS3(mk2) with a prestopatch connector (some mk2’s from the ‘Datanomics’ period didnt come with them fitted). The panel layout also reflects the mk2 matrix layout which was different from that on the mk1.
    [Show full text]
  • Additive Synthesis, Amplitude Modulation and Frequency Modulation
    Additive Synthesis, Amplitude Modulation and Frequency Modulation Prof Eduardo R Miranda Varèse-Gastprofessor [email protected] Electronic Music Studio TU Berlin Institute of Communications Research http://www.kgw.tu-berlin.de/ Topics: Additive Synthesis Amplitude Modulation (and Ring Modulation) Frequency Modulation Additive Synthesis • The technique assumes that any periodic waveform can be modelled as a sum sinusoids at various amplitude envelopes and time-varying frequencies. • Works by summing up individually generated sinusoids in order to form a specific sound. Additive Synthesis eg21 Additive Synthesis eg24 • A very powerful and flexible technique. • But it is difficult to control manually and is computationally expensive. • Musical timbres: composed of dozens of time-varying partials. • It requires dozens of oscillators, noise generators and envelopes to obtain convincing simulations of acoustic sounds. • The specification and control of the parameter values for these components are difficult and time consuming. • Alternative approach: tools to obtain the synthesis parameters automatically from the analysis of the spectrum of sampled sounds. Amplitude Modulation • Modulation occurs when some aspect of an audio signal (carrier) varies according to the behaviour of another signal (modulator). • AM = when a modulator drives the amplitude of a carrier. • Simple AM: uses only 2 sinewave oscillators. eg23 • Complex AM: may involve more than 2 signals; or signals other than sinewaves may be employed as carriers and/or modulators. • Two types of AM: a) Classic AM b) Ring Modulation Classic AM • The output from the modulator is added to an offset amplitude value. • If there is no modulation, then the amplitude of the carrier will be equal to the offset.
    [Show full text]
  • 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.
    [Show full text]
  • 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.
    [Show full text]