Wind controller
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A wind controller, sometimes referred to as a wind synthesizer, is an electronic
Simpler breath controllers are also available. Unlike wind controllers, they do not trigger notes and are intended for use in conjunction with a keyboard or synthesizer.
Some wind controllers contain a built-in sound generator and can be connected directly to an amplifier or a set of headphones. Some even include small built-in speakers such as the Roland Aerophone series and the Akai
The fingering and shape of the wind controller put no acoustic limitations on how the wind controller actually sounds. For example, a wind controller can be made to sound like a trumpet, saxophone, violin, piano, pipe organ, choir, synthesizers or even a barnyard rooster. Whether designed primarily to appeal to woodwind, brass, or harmonica players, controllers can produce any virtual instrument sound. Some virtual instruments and hardware synthesizers are better suited to adaption for wind controller performance than others. A hardware or software synthesizer's suitability is largely dependent on the control options available. MIDI CC mapping options allow the player to control elements like the filter cut off via breath control for expressive dynamics. Custom patches (or presets) are required for optimal expressivity, to take advantage of the considerable benefits of wind control.
History
Predecessors
Already in the 1930s Benjamin F. Miessner was working on various electroacoustic instruments. Among these was an electroacoustic clarinet, that featured an electromagnetic pickup for the reed vibration and was connected to a variety of electronic filters. Miessner's patent from 1938[3][4] marks the birth of the electronic wind instrument family.[5]
Early experiments with fully electronic instruments started in the 1940s. Leo F. J. Arnold invented an electronic clarinet that featured an on/off-switch controlled by the human breath. This instrument is documented in Arnold's patent from 1942.[6][7][5]
The Frenchman
Analog wind controllers

(essentially, Lyricon II without synthesizer)
The first widely played wind controller was the
The next wind controller of note was the brass style Steiner EVI invented by wind controller pioneer Nyle Steiner. Steiner was the inventor of the brass style EVI (electronic valve instrument) wind controller designed for brass players, as well as the
MIDI controller revolution
With the advent of MIDI and computer-based digital samplers in the early 1980s, the new music technology ushered in a variety of "alternative" MIDI controllers. In the 1960s and 1970s, the main way for a musician to play synthesizers was with a keyboard. With MIDI, it became possible for non-keyboardists to play MIDI synthesizers and samplers for the first time. These new controllers included, most notably: MIDI drums, MIDI guitar synthesizers, and MIDI wind controllers. Leading the way to demonstrate the virtuosic potential of this new arsenal of MIDI technology on the world stage through extensive touring and big-label recordings were guitarist Pat Metheny playing the guitar synthesizer and saxophonist Michael Brecker playing the wind controller, each leading their own bands.
Digital wind controllers and MIDI
The most widely played[
The now defunct Casio DH series were toy-like wind controllers introduced in the mid-1980s and had a built-in speaker (with limited sound sources) as well as being usable as MIDI controllers.
A recent addition to the wind controller category is the Synthophone, an entirely electronic wind controller embedded in the shell of an alto saxophone. Since the electronic components take up the open space of the saxophone, it is not playable as an acoustic instrument; however, since the exterior matches that of the acoustic instrument, it is significantly more familiar to play.
Additionally, keyboard-based breath controllers are also available. These modulate standard keyboards, computers and other midi devices, meaning they are not played like a woodwind, but like a keyboard, but with a breath controller (similar to a pump organ.) Yamaha's BC series can be used to control DX and EX units. Midi Solutions makes a converter box that allows any midi device to be controlled by the Yamaha BC controllers. TEControl also makes a USB device that is simply a jump drive with a breath tube attached that can be plugged into any standard computer.
Acoustic wind instrument conversion to software MIDI as wind control
Through the 1990s the major hardware-based wind controllers improved through successive models and a number of minor, and less commercially successful, controllers were introduced. These software solutions for a time were the only viable bridge between the woodwind or brass player and the synthesizer. But dating back to the 1980s a lesser known software-based alternative began to emerge. With a software-based conversion program the musician plays an ordinary wind instrument into a microphone at which point a software program (sometimes with dedicated computer hardware) interpreted the pitch, dynamics, and expression of this acoustic sound and generates a standard MIDI data stream just in time to play along with the performer through a synthesizer.
While the first commercial product attempting this approach dates back to the Fairlight Voicetracker VT-5 of 1985, a more successful modern approach using software on personal computers (combined with a digital audio workstation and softsynths) is relatively new. Two more recent examples of this highly unusual archaic approach were Thing-1 from ThingTone Software, and Digital Ear Realtime from Epinoisis Software.
Range of expression
Due in part to their fast and sensitive key switching and breath sensing systems both the hardware and software based wind controllers put precise demands on a player who hopes to play with technical mastery. An accomplished woodwind or brass player may find that a hardware or software based wind controller will produce an unwanted note (called a "glitch") even at the slightest imperfection in fingering or articulation technique. As the better recordings show, these difficulties can be overcome with practice.
In contrast to live performance with a wind controller, and in response to these technical challenges, some "performances" in recordings are achieved through careful post-processing or note-by-note insertion and editing using a notation or sequencer program.[original research?]
Virtually all current synthesizers and their sound libraries are designed to be played primarily with a keyboard controller, whereby the player often reserves one hand to manipulate the many real-time controls to determine how the instrument sounds, perhaps using a foot to manipulate an expression pedal.[original research?]
Wind controller players do not have access to as many of these controls and thus are often limited in exploiting all of the potential voicings and articulation changes of their synthesizers, but the technologies of physical modeling (Yamaha VL70-m), sample modeling and hybrid technologies (SWAM engine) promise more expression control for wind controller players. Furthermore, sound designers are paying more attention to the different playing idioms in which their sounds will be used. For example, certain percussion sounds do not work well with a wind controller simply because playing a struck instrument it is not idiomatic to the woodwind, whereas synthesized instruments that model the acoustic properties of a woodwind will seem fitting and natural to a wind controller player.[original research?]
A few of the many hardware (Yamaha, Roland, Akai, Kurzweill, Aodyo) and software (Native Instruments, Garritan, SampleModeling, Sample Logic, LinPlug, Audio Modeling) synthesizers provide specific support for wind controllers, and they vary widely with respect to how well they emulate acoustic wind, brass, and string instruments. The SWAM technology, devised by Audio Modeling, has specific settings for Yamaha, EWI, Sylphyo and Aerophone wind controllers and has succeeded in producing very rapid natural responsiveness with their woodwinds and bowed strings virtual instruments. Also Samplemodeling has specific settings for wind controllers on their Kontakt-based brass. That said, virtually all current synthesizers respond to MIDI continuous controllers and the data provided by wind controller breath and lip input can usually be routed to them in an expressive way.[original research?]
An example of a hardware synthesizer with wind controller support is the Yamaha VL70-m which uses physical modeling synthesis. Physical modeling allows for a unique level of responsiveness to the control signals sent from a wind controller. The emulation of acoustic instrument sounds varies in quality. The VL70-m is able to connect directly to the Yamaha WX series of controllers and via MIDI to the Akai and other wind controllers. Similarly, an example of a
Manufacturers
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The major manufacturers of wind controllers are
Models out of production and discontinued include the Akai EWI USB (discontinued 2022), 4000s (discontinued 2019). Also 20th century (part analogue) models from Akai such as the 3020, 3000 and 1000. Older discontinued models from Yamaha include WX11, WX7 and
Wind controllers with saxophone fingerings
Synthophone
The Synthophone is a Wind Controller synthesizer. It is a MIDI sax offering real sax fingerings and a standard sax embouchure. The MIDI hardware allows the key action as well as breath and lip pressure to be read as MIDI data. Since it is a saxophone, the fingerings are the same with some additions - Several combinations allow real-time editing of patches and harmony. The instrument has made several appearances at the NAMM Show, including in 1997.[10]
Others
After the Synthophone, several other MIDI saxes have been released that offer real sax fingerings: in 2019 the Travel Sax by Odisei Music,[11] in 2020 the YDS-150 digital saxophone by Yamaha[12] and also in 2020 the Emeo.[13] These MIDI saxes have sensors for breath pressure to adjust the volume, but they do not read lip pressure and thus do not allow the pitch to be controlled by the embouchure or by the manner of breathing. With the YDS-150, pitch bend can be achieved using a separate input on the instrument. The Travel Sax, the YDS-150 and the Emeo provide for settings customisation using a Bluetooth-connected mobile app.
See also
References
- ^ "Four Wind Controllers That Are Worth Owning | Vintage Synth Explorer". www.vintagesynth.com. Retrieved 2022-08-25.
- ^ "Breath Controller". Sweetwater. Aug 14, 2003. Retrieved 2020-01-14.
- ^ Miessner, Benjamin F. (November 29, 1938). "United States Patent: 2138500". www.uspto.gov. USPTO. Retrieved May 3, 2021.
- ^ Miessner, Benjamin F. (November 29, 1938). "Apparatus for the production of music". Retrieved May 3, 2021., US002138500, 1938.
- ^ OCLC 978263084.
- ^ Arnold, Leo F. J. (November 10, 1942). "United States Patent: 2301184". www.uspto.gov. USPTO. Retrieved May 3, 2021.
- ^ Arnold, Leo F. J. (November 10, 1942). "Electrical clarinet". Retrieved May 3, 2021., US002301184, 1942.
- ^ Jenny, Georges (1954-02-10). "The Patent Office, Patent Specification: 703733". Espacenet. UK IPO. Retrieved May 3, 2021.
- ^ Jenny, Georges (1954-02-10). "Improvements in or relating to electronic musical instruments". Retrieved May 3, 2021., GB703733, 1954.
- ^ "Wind Controller Summit At 1997 NAMM". www.patchmanmusic.com.
- ^ Julian Horsey (2019-03-14). "Travel Sax super small electronic saxophone". Retrieved 2020-10-10.
- ^ Paul Ridden (2020-09-24). "Yamaha blows out authentic-sounding digital saxophone". Retrieved 2020-10-10.
- ^ "Israeli start-up develops digital practice saxophone". ajuede.com. 2020-07-03. Retrieved 2023-02-06.