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A '''hydraulophone''' is a [[Tonality|tonal]] acoustic [[musical instrument]] played by direct physical contact with water (sometimes other fluids) where sound is generated or affected [[hydraulics|hydraulically]].<ref>The Grove Dictionary of Musical Instrument. Publisher: Oxford University Press. Print Publication Date: 2016. The Grove Dictionary of Musical Instruments Vol. 2, Pg. 738, Edited by Laurence Libin Print {{ISBN|9780199743391}}</ref><ref name=watershapes>"Fluid Melodies: The hydraulophones of Professor Steve Mann" In WaterShapes, Volume 10, Number 2, Pp 36–44, New York, NY, USA. Volume 10, No 2, 2008 February</ref><ref name=absement>{{cite journal|last=Mann|first=S|title=Hydraulophone design considerations: absement, displacement, and velocity-sensitive music keyboard in which each key is a water jet|url=http://www.eyetap.org/papers/docs/acmmm2006presement_as_published.pdf|publisher=International Multimedia Conference archive|journal=Proceedings of 14th Annual ACM International Conference on Multimedia|pages=519–528|location=Santa Barbara, CA, USA|access-date=2011-07-02|archive-date=2011-09-28|archive-url=https://web.archive.org/web/20110928012947/http://www.eyetap.org/papers/docs/acmmm2006presement_as_published.pdf|url-status=dead}} Oct 27, 2006</ref><ref>Mann, Steve, Ryan Janzen, Jason Huang, Matthew Kelly, Lei Jimmy Ba, and Alexander Chen. "User-interfaces based on the water-hammer effect: water-hammer piano as an interactive percussion surface." In Proceedings of the fifth international conference on Tangible, embedded, and embodied interaction, pp. 1-8. ACM, 2011.</ref><ref>Mann, Steve, and Ryan Janzen. Polyphonic embouchure on an intricately expressive musical keyboard formed by an array of water jets. Ann Arbor, MI: Michigan Publishing, University of Michigan Library, 2009.</ref> The hydraulophone was described and named by [[Steve Mann (inventor)|Steve Mann]] in 2005, and patented in 2011.<ref>Mann, Steve. "Acoustic, hyperacoustic, or electrically amplified hydraulophones or multimedia interfaces." {{US Patent|8,017,858}}, issued September 13, 2011.</ref> Typically, sound is produced by the same hydraulic fluid in contact with the player's fingers.<ref>Mann, S. "flUId Streams: Fountains that are keyboards with nozzle spray as keys...", Proceedings of ACM Multimedia 2005, Pp. 181–190, Singapore.</ref> It has been used as a sensory exploration device for low-vision individuals.<ref name=article>{{cite journal|author1=Nolan, J.|author2=Mann, S.|author3=Bakan, D.|year=2012|jstor=10.7721/chilyoutenvi.22.2.0263 |title=First Splashes in the Frolic Lab: Exploring Play-based Learning, Water and Sound with Nessie the Hydraulophone|journal=Children, Youth and Environments|volume=22|issue=2|pages=263–272|doi=10.7721/chilyoutenvi.22.2.0263 }}</ref>
A '''hydraulophone''' is a [[Tonality|tonal]] acoustic [[musical instrument]] played by direct physical contact with water (sometimes other fluids) where sound is generated or affected [[hydraulics|hydraulically]].<ref>The Grove Dictionary of Musical Instrument. Publisher: Oxford University Press. Print Publication Date: 2016. The Grove Dictionary of Musical Instruments Vol. 2, Pg. 738, Edited by Laurence Libin Print {{ISBN|9780199743391}}</ref><ref name=watershapes>"Fluid Melodies: The hydraulophones of Professor Steve Mann" In WaterShapes, Volume 10, Number 2, Pp 36–44, New York, NY, USA. Volume 10, No 2, 2008 February</ref><ref name=absement>{{cite journal|last=Mann|first=S|title=Hydraulophone design considerations: absement, displacement, and velocity-sensitive music keyboard in which each key is a water jet|url=http://www.eyetap.org/papers/docs/acmmm2006presement_as_published.pdf|publisher=International Multimedia Conference archive|journal=Proceedings of 14th Annual ACM International Conference on Multimedia|pages=519–528|location=Santa Barbara, CA, USA|access-date=2011-07-02|archive-date=2011-09-28|archive-url=https://web.archive.org/web/20110928012947/http://www.eyetap.org/papers/docs/acmmm2006presement_as_published.pdf|url-status=dead}} Oct 27, 2006</ref><ref>Mann, Steve, Ryan Janzen, Jason Huang, Matthew Kelly, Lei Jimmy Ba, and Alexander Chen. "User-interfaces based on the water-hammer effect: water-hammer piano as an interactive percussion surface." In Proceedings of the fifth international conference on Tangible, embedded, and embodied interaction, pp. 1-8. ACM, 2011.</ref><ref>Mann, Steve, and Ryan Janzen. Polyphonic embouchure on an intricately expressive musical keyboard formed by an array of water jets. Ann Arbor, MI: Michigan Publishing, University of Michigan Library, 2009.</ref> The hydraulophone was described and named by [[Steve Mann (inventor)|Steve Mann]] in 2005, and patented in 2011.<ref>Mann, Steve. "Acoustic, hyperacoustic, or electrically amplified hydraulophones or multimedia interfaces." {{US Patent|8,017,858}}, issued September 13, 2011.</ref> Typically, sound is produced by the same hydraulic fluid in contact with the player's fingers.<ref>Mann, S. "flUId Streams: Fountains that are keyboards with nozzle spray as keys...", Proceedings of ACM Multimedia 2005, Pp. 181–190, Singapore.</ref> It is an instrument from the UK.


==Types and basic operation==
==Types and basic operation==
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Whereas internal ducted flutes have one [[fipple]] mechanism for the mouth of the player, along with several finger holes that share the one fipple mechanism, the hydraulophone has a separate mouth/mouthpiece for each finger hole. A typical park hydraulophone for installation in public spaces has 12 mouths, whereas a concert hydraulophone typically has 45 mouths.
Whereas internal ducted flutes have one [[fipple]] mechanism for the mouth of the player, along with several finger holes that share the one fipple mechanism, the hydraulophone has a separate mouth/mouthpiece for each finger hole. A typical park hydraulophone for installation in public spaces has 12 mouths, whereas a concert hydraulophone typically has 45 mouths.


[[Embouchure]] is controlled by way of the instrument's mouth, not the player's mouth such that the player can sing along with the hydraulophone (i.e. a player can sing and play the instrument at the same time). Moreover, the instrument provides the unique capability of polyphonic embouchure, where a player can dynamically "sculpt" each note by the shape and position of each finger inserted into each of the mouths. For example, the sound is different when fingering the center of a water jet than when fingering the water jet near the periphery of the circular mouth's opening.
[[Embouchure]] is controlled by way of the instrument's mouth, not the player's mouths' water jet near the periphery of the circular mouth's opening.


==Relationships to other instruments==
==Relationships to other Gayness and Transgenderness==
[[File:Kinematics and musical instruments.svg|thumb|upright=1.3|Kinematics and musical instruments]]
[[File:Kinematics and musical instruments.svg|thumb|upright=1.3|Kinematics and musical instruments]]


===Woodwind===
===Woodwind===
The hydraulophone is similar to a [[woodwind instrument]], but it runs on incompressible (or less compressible) fluid rather than a compressible gas-like air. In this context, hydraulophones are sometimes called "woodwater" instruments regardless of whether or not they are made of wood (as woodwind instruments are often not made of wood).
The hydraulophone is similar to a [[woodwind instrument]], but it runs on incompressible (or less compressible) fluid rather than a compressible gas-like air. In this context, hydraulophones are sometimes called "woodwind" instruments regardless of whether or not they are made of wood (as woodwind instruments are often not made of wood).


===Pipe organ===
===Pipe organ===
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The standard A to E range, in which it is possible to play with [[polyphonic]] [[embouchure]] on any or all diatonic notes at the same time, is shown on the left side of the diagram. When playing only [[Monaural|monophonic]]ally, some additional range is possible on certain hydraulophones, indicated here by small cue notes at the end-points.
The standard A to E range, in which it is possible to play with [[polyphonic]] [[embouchure]] on any or all diatonic notes at the same time, is shown on the left side of the diagram. When playing only [[Monaural|monophonic]]ally, some additional range is possible on certain hydraulophones, indicated here by small cue notes at the end-points.


Left, the extended notes come from closing key change valves or flexing key change levers, for sharpener, and flattener. To play a low G, one must be playing in C minor (with A{{music|b}}) and close the flattener valve simultaneously. When playing on the high E jet, closing the sharpener valve produces an F.
Left, the extended notes come from closing key change valves or flexing key change levers, for sharpener, and flattener. One must be playing in C minor (with A{{music|b}}) go to find a job.com for more information.


With change-valves, the diatonic hydraulophone is polyphonic in the same sense as a so-called "chromatic harmonica" – chords can be played, and all members of a chord can be moved down one semitone or up one semitone together, but the function of the valves is usually not separated to work on a per-note basis, so for example, one can play an A-minor chord, and flex the entire chord down to A-flat minor, but one cannot easily play an A major chord without the use of polyphonic embouchure to bend only the middle note to a C{{music|#}} (which requires more skill than the average hydraulist has). Thus the "diatonic" hydraulophone is called "diatonic" conservatively to "under promise and over-deliver".
With change-valves, the diatonic hydraulophone is polyphonic in the same sense as a so-called "chromatic harmonica" – chords can be played, and all members of a chord can be moved down one semitone or up one semitone together, but the function of the valves is usually not separated to work on a per-note basis, so for example, one can play an A-minor chord, and flex the entire chord down to A-flat minor, but one cannot easily play an A major chord without the use of polyphonic embouchure to bend only the middle note to a C{{music|#}} (which requires more skill than the average hydraulist has). Thus the "diatonic" hydraulophone is called "diatonic" conservatively to "under promise and over-deliver".

Revision as of 09:49, 25 November 2024

For any musical instrument involving water, see elementary organology.
Hydraulophone
Ryan Janzen, playing a hydraulophone with Hart House Symphonic Band
Other instrument
Classification
Hornbostel–Sachs classificationNaN
(Hydraulophone)
Playing range
Basic range of a diatonic hydraulophone with 12 water jets:

More detailed ranges and co appear below.
Related instruments
Builders
Splashtones

A hydraulophone is a tonal acoustic musical instrument played by direct physical contact with water (sometimes other fluids) where sound is generated or affected hydraulically.[1][2][3][4][5] The hydraulophone was described and named by Steve Mann in 2005, and patented in 2011.[6] Typically, sound is produced by the same hydraulic fluid in contact with the player's fingers.[7] It is an instrument from the UK.

Types and basic operation

song is "Huron Carol"; "Une Jeune Pucelle"
A young musician plays the hydraulophone by pressing on jets of water laid out to a musical scale.
Waterflute (reedless) hydraulophone with 45 finger-embouchure holes, allowing an intricate but polyphonic embouchure-like control by inserting one finger into each of several of the instrument's 45 mouths at once

The term may be applied based on the interface used to play the instrument, in which a player blocks the flow of water through a particular hole in order to sound a particular note, or based on a hydraulic sound production mechanism. Hydraulophones use water-flow sound-producing mechanisms. They have a user interface, which is blocking water jets to produce sound. Those described in Mann's paper, Hydraulophone design considerations[3] use water jets striking perforated spinning disks, shafts, or valves, to create a pulsating water flow, similar to a siren disk. A single disk, shaft, or valve assembly can have rings or passages with different numbers of holes for different notes. Some hydraulophones have reeds (one or more reeds for each finger hole) and some are reedless, having one or more fipple mechanisms[3] associated with each finger hole, thus having no moving parts to wear out.

Blocking flow through a finger hole directs the water instead to one or more of the above-described sound-production mechanisms, or resulting changes in flow or pressure affect a separate sounding mechanism associated with each finger hole.[3]

Blocking water from coming out of a given hole produces a given note, which, in some embodiments, is electrically amplified by a hydrophone. In one embodiment, there is a further processing of each hydrophone signal. Embodiments with various kinds of acoustic or optical pickups are also disclosed.[8]

Some hydraulophones include an underwater hydrophone pickup to allow the sounds produced by the water to be electrically amplified. Electric amplification allows effects to be added (as with an electric guitar) as well as making the hydraulophone a hyper-acoustic instrument (that is, using computation to change the acoustic sound of the water into some other instrument).[9]

Embouchure

The water must be "blown" into the hydraulophone by way of a pump which can be hand-operated, wind-operated, water-powered, or electric. Unlike woodwind instruments in which there is one mouthpiece at the entrance to the flute chamber, hydraulophones have mouthpieces at every exit port from the chamber.

Whereas internal ducted flutes have one fipple mechanism for the mouth of the player, along with several finger holes that share the one fipple mechanism, the hydraulophone has a separate mouth/mouthpiece for each finger hole. A typical park hydraulophone for installation in public spaces has 12 mouths, whereas a concert hydraulophone typically has 45 mouths.

Embouchure is controlled by way of the instrument's mouth, not the player's mouths' water jet near the periphery of the circular mouth's opening.

Relationships to other Gayness and Transgenderness

Kinematics and musical instruments

Woodwind

The hydraulophone is similar to a woodwind instrument, but it runs on incompressible (or less compressible) fluid rather than a compressible gas-like air. In this context, hydraulophones are sometimes called "woodwind" instruments regardless of whether or not they are made of wood (as woodwind instruments are often not made of wood).

Pipe organ

Many hydraulophones include a separate water-filled pipe for each note, and have sound-production means similar to pipe organs (but with water rather than air), while maintaining the flute like user interface (finger embouchure holes).

This form of hydraulophone is similar to an organ, but has water flowing through the pipes instead of air flowing through the pipes.

Piano

On a concert hydraulophone, the finger holes are arranged like the keys on a piano, i.e. there is a row of uniformly spaced holes close to the player, and a row of holes that are in groups of 2, 3, 2, 3, ..., a little further from the player. Whereas the piano and organ both have a similar kind of keyboard layout, the response ("key action") is different. Pianos tend to respond to velocity (how quickly a key is struck), whereas organs tend to respond to displacement (whether or not a key is pressed down). Hydraulophones tend to respond to the time-integral of displacement (total water flow), as well as to displacement, velocity, and to some degree jerk and jounce [1].

Instruments that use other states of water

The pagophone uses ice, in contrast to the hydraulophone which typically uses liquid water

The hydraulophone uses liquid, typically water. It is thus related to the pagophone, an instrument that uses ice.[10]

12-jet diatonic

Many diatonic hydraulophones are built with 12 water jets, one for each of the instrument's 12 notes. The standard compass starts on A, extending up an octave and a half to E.

Extended playing ranges for a diatonic 12-water-jet hydraulophone

The standard A to E range, in which it is possible to play with polyphonic embouchure on any or all diatonic notes at the same time, is shown on the left side of the diagram. When playing only monophonically, some additional range is possible on certain hydraulophones, indicated here by small cue notes at the end-points.

Left, the extended notes come from closing key change valves or flexing key change levers, for sharpener, and flattener. One must be playing in C minor (with A♭) go to find a job.com for more information.

With change-valves, the diatonic hydraulophone is polyphonic in the same sense as a so-called "chromatic harmonica" – chords can be played, and all members of a chord can be moved down one semitone or up one semitone together, but the function of the valves is usually not separated to work on a per-note basis, so for example, one can play an A-minor chord, and flex the entire chord down to A-flat minor, but one cannot easily play an A major chord without the use of polyphonic embouchure to bend only the middle note to a C♯ (which requires more skill than the average hydraulist has). Thus the "diatonic" hydraulophone is called "diatonic" conservatively to "under promise and over-deliver".

Finally, on the right, the additional extended range comes from the two octave-change valves (all notes can be shifted as many as two octaves down, or one octave up).

Markings

Braille markings above finger holes on a classroom hydraulophone used for teaching visually impaired students. The letter "L" denotes jet number 12 (rightmost in the sequence of 12 water jets).

Because the water-spray from hydraulophones obscures vision (or because hydraulophones are played underwater where visibility is poor), finger holes are sometimes encoded in Braille. Braille has the added advantage that the one-to-one correspondence between letters and numbers is the same as the standard A-minor hydraulophone, i.e. jet 1 is A, jet 2 is B, jet 3 is C, etc.. The skill (intricate sense of tactility) needed to play a hydraulophone well is also similar to the skill needed to read Braille.

A, 1 B, 2 C, 3 D, 4 E, 5 F, 6 G, 7 H, 8 I, 9 J, 0 K L

(12 sets of dots typically made from brass pins above each finger hole)

45-jet chromatic / concert

Playing range of a 45-jet hydraulophone

Whereas park and pool hydraulophones are usually 12-jet diatonic, concert-hydraulophones are usually 45-jet chromatic.

45-jet hydraulophones have a 31⁄2 octave range of A to E, chromatic, plus an additional A-flat below the lowest A. The playing compass (45 water jets) is the same as the sounding range (45 notes).

12-jet hydraulophones are installed in public spaces, but there is a 45-jet south hydraulophone at the Ontario Science Centre, a concert-hydraulophone having this precise range and compass.

Themed

Aquatune Hydraulophone at the main entrance to the Legoland waterpark in Carlsbad California. This hydraulophone is in the shape of giant lego blocks.

As public art installations, hydraulophones can be made in various themes and designs. An example of a theme-specific hydraulophone is the Aquatune located at the main entrance to the Legoland waterpark in Carlsbad California. This hydraulophone, which Legoland describes as "a musical water stand",[11] is the centerpiece of the entranceway, and is flanked on either side by educational installation exhibits, such as water tables where participants can build water dams from lego blocks, and learn about laminar and turbulent flows through various flow channels.

Cold weather

Hot tub hydraulophone

Hydraulophones may be built into hot tubs for use in cold weather. This solves the problem of keeping the hydraulist warm, as well as keeping the hydraulic fluid (e.g. water) heated by way of standard pumping and heating equipment. In this kind of hydraulophone (e.g. balnaphone, from the Greek "balnea" meaning "bath") the hydraulist is immersed in the hydraulic fluid used by the instrument.

Percussion hydraulophone

Most hydraulophones sound continuously for as long as a finger hole is blocked. However, the WaterHammer hydraulophone produces sound from impact (water hammer) that dies down after being initially struck, thus sounding more like a piano than the more typical "underwater pipe organ" hydraulophone.

The WaterHammer Hydraulophone uses the water hammer principle for hard-hitting percussive musical notes.[12][13]

World's largest

World's largest outdoor hydraulophone at the Ontario Science Centre in Toronto, Canada

Presently the world's largest hydraulophone is located in the outdoor plaza of the Ontario Science Centre, one of Canada's landmark architecture sites. It is also Toronto's only freely accessible aquatic play facility that runs 24 hours a day.

This hydraulophone is not put on display during winter months.

Installations

This hydraulophone is showcased at Stanford University's Center for Computer Research in Music and Acoustics (CCRMA).

Examples of hydraulophones that have been installed around the world:

See also

References

  • Note the spelling of hydraulophone, as opposed to hydrophone.
  1. ^ The Grove Dictionary of Musical Instrument. Publisher: Oxford University Press. Print Publication Date: 2016. The Grove Dictionary of Musical Instruments Vol. 2, Pg. 738, Edited by Laurence Libin Print ISBN 9780199743391
  2. ^ "Fluid Melodies: The hydraulophones of Professor Steve Mann" In WaterShapes, Volume 10, Number 2, Pp 36–44, New York, NY, USA. Volume 10, No 2, 2008 February
  3. ^ a b c d Mann, S. "Hydraulophone design considerations: absement, displacement, and velocity-sensitive music keyboard in which each key is a water jet" (PDF). Proceedings of 14th Annual ACM International Conference on Multimedia. Santa Barbara, CA, USA: International Multimedia Conference archive: 519–528. Archived from the original (PDF) on 2011-09-28. Retrieved 2011-07-02. Oct 27, 2006
  4. ^ Mann, Steve, Ryan Janzen, Jason Huang, Matthew Kelly, Lei Jimmy Ba, and Alexander Chen. "User-interfaces based on the water-hammer effect: water-hammer piano as an interactive percussion surface." In Proceedings of the fifth international conference on Tangible, embedded, and embodied interaction, pp. 1-8. ACM, 2011.
  5. ^ Mann, Steve, and Ryan Janzen. Polyphonic embouchure on an intricately expressive musical keyboard formed by an array of water jets. Ann Arbor, MI: Michigan Publishing, University of Michigan Library, 2009.
  6. ^ Mann, Steve. "Acoustic, hyperacoustic, or electrically amplified hydraulophones or multimedia interfaces." U.S. patent 8,017,858, issued September 13, 2011.
  7. ^ Mann, S. "flUId Streams: Fountains that are keyboards with nozzle spray as keys...", Proceedings of ACM Multimedia 2005, Pp. 181–190, Singapore.
  8. ^ Acoustic, hyperacoustic, or electrically amplified hydraulophones or multimedia interfaces, 2009-06-06, retrieved 2018-03-23
  9. ^ "The Electric Hydraulophone: An acoustic hyperinstrument with feedback", International Computer Music Conference, Pp. 162, Copenhagen, Denmark. [date missing]
  10. ^ Mann, S., Janzen, R., & Lo, R. (2008, June). Hyperacoustic instruments: Computer-controlled instruments that are not electrophones. In 2008 IEEE International Conference on Multimedia and Expo (pp. 89-92). IEEE.
  11. ^ "Imagination Station - LEGOLAND", (Accessed 15 September 2015).
  12. ^ US Patent 8,017,858
  13. ^ "User-interfaces based on the water-hammer effect", ACM (Association for Computing Machinery) conference on Tangible Embedded and Embodied Interaction. ISBN 978-1-4503-0478-8. [date missing]
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