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| In the ocarina, a small enclosed chamber and a simple system of finger holes transform breath into a clear, immediately recognisable musical voice. |
| Family | Aerophones; vessel flutes with an internal duct |
|---|---|
| Hornbostel–Sachs classification | 421.221.422 — duct vessel flutes with two or more finger holes |
| Sound production | An air jet strikes the labium and excites the enclosed resonating chamber |
| Principal modern forms | 10- or 12-hole transverse, pendant, inline, and multi-chamber ocarinas |
| Primary material | Fired clay; also plastic, wood, porcelain, glass, or metal |
| Typical range | A4–F6 for a modern 12-hole alto ocarina in C |
| Musical role | Solo and educational instrument, member of ocarina ensembles, and distinctive colour in modern composition |
| Characteristic tone | Clear, gentle, and focused, with relatively few upper partials and an immediate response to the breath |
The ocarina is an aerophone belonging to the family of vessel flutes. Its sound is organised not within a long tube but inside an enclosed, usually rounded or oval chamber. Breath passes through a narrow internal windway, strikes the labium, and sets the entire body of enclosed air into oscillation.
This acoustic principle explains how such a compact object can produce a stable and clearly defined pitch. It also distinguishes the ocarina’s finger holes from those of a flute or recorder: they do not select different effective tube lengths, but alter the resonant frequency of a single enclosed chamber.
The History of the Ocarina and Vessel Flutes
The idea of turning a hollow vessel into a wind instrument arose in widely separated cultures and does not point to a single, continuous line of descent. Archaeological collections from Central and South America contain ceramic vessel flutes in human, animal, and abstract forms. These objects belonged to varied ceremonial, social, and musical practices that cannot simply be treated as preliminary stages of the modern European ocarina.
China’s xun represents another ancient and independent vessel-flute tradition. Its clay body encloses a rounded chamber, yet the player blows directly across an opening rather than through the internal windway of the modern ocarina. The relationship is therefore acoustic and morphological, not evidence of an uncomplicated historical succession.
The modern European ocarina emerged in Budrio, near Bologna. According to the historical documentation of the town’s Ocarina Museum, Giuseppe Donati created the new instrument in 1853, initially as a musical amusement for friends. He soon organised the finger holes with greater precision and built instruments of different sizes, forming a complete family with a much wider collective compass.
The word ocarina comes from the Bolognese dialect and means “little goose”, probably in reference to the instrument’s shape. From 1865, the first Budrio ocarina ensembles played a decisive role in spreading it through Italy and abroad. Makers and performers such as Cesare Vicinelli and Alberto Mezzetti developed distinct models and cultivated a repertory of arrangements, dances, and original music.
During the twentieth and twenty-first centuries, important traditions of making and performance grew in Japan, Korea, and Taiwan. The spread of 12-hole and multi-chamber systems extended the instrument’s solo possibilities, while its compact size and immediate sound production encouraged its adoption in music education.
The Ocarina’s Construction and Principal Forms
The body of an ocarina encloses a single resonating chamber. In the transverse Budrio form it is elongated and oval, with the mouthpiece projecting from one side. Inside the mouthpiece, the narrow windway shapes the air jet and directs it towards the sharp edge of the sound window, or labium.
The finger holes communicate directly with the chamber. Traditional Budrio instruments often have ten holes, while many modern transverse models have twelve, including two smaller subholes that extend the range downwards. The diameter, wall thickness, and geometry of each opening form part of the tuning system; they are not decorative details.
Fired clay remains the material most closely associated with the instrument’s historical identity. Ocarinas are also made from plastic, wood, porcelain, glass, and metal. Material affects durability, weight, tactile character, and manufacturing consistency, but the internal geometry, windway, and labium have a more direct influence on response and tuning than any simple opposition between supposedly “warm” and “cool” materials.
Alongside the transverse ocarina are pendant and inline designs, as well as double, triple, and other multi-chamber ocarinas. In these instruments, each chamber has its own windway and sound window. The player moves between chambers to reach a wider compass; the design is not an arbitrary subdivision of one resonating cavity.
How the Ocarina Works
When the player blows, the windway forms the breath into a narrow jet directed at the labium. The jet is deflected alternately inside and outside the instrument, creating rapid changes of pressure. These pressure variations excite the air mass in the enclosed chamber and establish a stable acoustic oscillation.
The ocarina behaves approximately as a Helmholtz resonator. Its resonant frequency depends on the cavity volume and on the combined acoustic behaviour of the sound window and the open finger holes. Opening more or larger holes increases the total acoustic conductance to the outside air and raises the pitch. The cavity does not literally become smaller, nor does it turn into a tube of changing effective length.
Breath pressure affects loudness, tone colour, and pitch at the same time. Too little air lowers and destabilises the note; excessive pressure sharpens it and may harden the tone. Fingering and breath must therefore operate as one technical system. Unlike most tubular flutes, a single-chamber ocarina does not normally produce a new octave by overblowing. Its restricted compass is extended chiefly through additional holes or separate chambers.
The Range of the Ocarina
Compass varies with fingering system, instrument size, and the number of chambers. A modern 12-hole alto ocarina in C typically sounds from A4 to F6, a range of approximately an octave and a sixth. These are the sounding pitches for this particular class of instrument.
Smaller soprano ocarinas lie higher, while tenor and bass models occupy lower registers. Double and triple instruments use overlapping chambers to provide two or more octaves. Exact limits still vary by maker and by the breath curve required for stable intonation, so the diagram represents a typical practical compass, not an absolute boundary for every ocarina.
The orange band shows the typical range of a 12-hole alto ocarina in C, from A4 to F6.
The Ocarina’s Sound and Musical Role
The ocarina’s tone is clear, gentle, and focused. Because the resonance of the enclosed cavity does not support a rich harmonic ladder in the same way as a long air column, its sound often appears pure and almost vocal. Notes speak immediately, although the instrument’s overall dynamic range is generally narrower than that of orchestral woodwinds.
Expression comes through articulation, phrase direction, vibrato, and finely controlled changes of breath. Because stronger pressure also tends to raise the pitch, a crescendo requires continuous correction. The upper notes of many models call for progressively greater airflow, while low notes depend on steadiness and a complete seal over every covered hole.
The ocarina appears as a solo voice, in families of differently sized instruments, in traditional and educational ensembles, and as a special colour in modern composition. In Říkadla by Leoš Janáček, it contributes a playful yet slightly uncanny edge to the chamber ensemble. In György Ligeti’s Violin Concerto, four woodwind players also perform on ocarinas; together with natural harmonics, micro-intervals, and retuned strings, they help create a deliberately fragile field of intonation.
The Ocarina in Modern Culture
The instrument’s international presence has been strengthened by schools of making, festivals, and ensembles in Europe and East Asia. In Japan, artists such as Sojiro have developed the ocarina as a solo voice capable of long melodic breath, refined articulation, and subtle gradations of colour.
A different phase of recognition began in 1998 with The Legend of Zelda: Ocarina of Time. Within the game, the ocarina becomes a medium of communication, memory, and movement through the story’s imagined world. The player does more than possess the instrument: short musical patterns activate events and alter the course of the narrative.
The following orchestral arrangement of Song of Storms and Saria’s Song is not a demonstration of the physical instrument. It does, however, reveal how deeply the musical idea of the ocarina became embedded in the game’s collective memory and in the instrument’s modern public identity.
See the Ocarina in Action
In Gina Luciani’s presentation, the ocarina is approached from the performer’s perspective. Notice how both hands support the instrument, how completely the fingers seal the holes, and how the breath adjusts as the melody moves into the upper register. The demonstration makes especially clear that accurate fingering and controlled air pressure form a single technical system.
Closing Reflection
The ocarina turns a small enclosed space into a musical voice. It needs no long tube, elaborate mechanism, or extended keywork: only a cavity, an edge, and breath.
Perhaps this is why its sound can seem distant even though it is born so close to the player’s hands and breathing. In its spare construction, ceramic craft meets acoustic knowledge and a musical idea discovered independently, in different forms, by cultures across the world.
🎶 Further Listening
The ocarina reveals a different identity when heard as one member of a complete instrumental family, as a solo voice, or as an unexpected colour in a modern ensemble.
Gruppo Ocarinistico Budriese — Rossini e la Terracotta (1992)
The ensemble’s instruments cover high melodic lines and lower accompanying roles, showing how Donati’s invention developed into a coordinated family with a coherent ceramic sonority.Leoš Janáček — Říkadla, JW V/16
Within the unusual ensemble accompanying the chorus, the ocarina contributes a sound that is playful and strange at once, remaining distinct without disturbing the transparent texture.György Ligeti — Violin Concerto (1990/92), especially the second movement
The woodwind players’ ocarinas meet natural harmonics, micro-intervals, and retuned strings in a fragile, deliberately unfamiliar layer of sound. The recording with Saschko Gawriloff, Ensemble InterContemporain, and Pierre Boulez is especially revealing.Sojiro — Ocarina no Mori Kara (From the Ocarina Forest, 2009)
The modern Japanese solo tradition treats the ocarina as an instrument of sustained melodic breathing, revealing subtle gradations of articulation, vibrato, and airflow.
📚 Further Reading
The history of the ocarina intersects with organology, ceramic craft, musical acoustics, and the study of archaeological sound objects. These publications illuminate complementary aspects of the instrument.
David Liggins & Christa Liggins — The Ocarina: A Pictorial History
An illustrated survey of the wide range of forms, materials, and making traditions associated with ocarinas and other vessel flutes.Claudio Cedroni — Il settimino di ocarine: Storia di una tradizione italiana
A detailed history of Budrio’s seven-part ocarina ensemble tradition, valuable for its account of repertory, circulation, and the instrument’s social life.Barry Hall — From Mud to Music: Making and Enjoying Ceramic Musical Instruments
A practical and acoustic approach to ceramic instruments, clarifying the relationship between cavity, windway, sounding edge, and tone.Susan Rawcliffe — “Eight West Mexican Flutes in the Fowler Museum”
A study of pre-Columbian ceramic flutes combining morphology, acoustic measurement, and experimental performance without forcing them into a single linear “history of the ocarina”.
🔗 Related Instruments
These instruments reveal different relationships between enclosed cavities, windways, and the organisation of pitch.
Xun
An ancient Chinese vessel flute with an enclosed clay chamber. Sound is produced by blowing directly across an opening rather than through the modern ocarina’s internal windway.Gemshorn
A vessel flute traditionally made from an animal horn. Its internal duct and finger holes apply a related acoustic principle to a very different material and shape.Recorder
Like the ocarina, it uses an internal windway and labium. Its pitch, however, depends on the effective length of a tubular air column.Udu
A Nigerian ceramic vessel drum. Although it is not an aerophone, its deep resonance also depends on the acoustic behaviour of an enclosed cavity, creating an instructive physical relationship.
📖 References & Sources
Research on the ocarina must distinguish the history of the specific instrument created in Budrio from the far wider presence of vessel flutes across different cultures. This revision therefore combines current organological classification, musical-acoustic studies, Budrio histories, museum collections, archaeomusicological research, scores, recordings, and primary audiovisual material.
Organological Classification and Acoustics
- MIMO Consortium. Revision of the Hornbostel–Sachs Classification of Musical Instruments by the MIMO Consortium. 8 July 2011.
- Liggins, David. “Ocarina.” Grove Music Online. Oxford University Press.
- Fletcher, Neville H., and Thomas D. Rossing. The Physics of Musical Instruments. 2nd ed. New York: Springer, 1998.
- Okada, Hiroaki, Sho Iwagami, Taizo Kobayashi, and Kinya Takahashi. “Numerical Simulation of Aerodynamics Sound in an Ocarina Model.” Proceedings of the International Symposium on Musical Acoustics, Detmold, 2019.
History, Construction, and the Budrio Tradition
- Adversi, Aldo. L’ocarina di Budrio. Bologna: Bongiovanni, 1963.
- Cedroni, Claudio. Il settimino di ocarine: Storia di una tradizione italiana. Bologna: Sonic Press, 2011.
- Molinari Pradelli, Alessandro, ed. Il suono dell’argilla: L’ocarina di Budrio 150 anni dopo. Budrio: Comune di Budrio, Assessorato alla Cultura, 2003.
- Liggins, David, and Christa Liggins. The Ocarina: A Pictorial History. Kettering: Ocarina Workshop, 2003.
- Hall, Barry. From Mud to Music: Making and Enjoying Ceramic Musical Instruments. Westerville, Ohio: The American Ceramic Society, 2006.
- Museo dell’Ocarina “Franco Ferri” e degli Strumenti Musicali in Terracotta, Comune di Budrio. Historical presentation and collection catalogue.
Archaeological and Comparative Sources
- Rawcliffe, Susan. “Eight West Mexican Flutes in the Fowler Museum.” The World of Music 49, no. 2, 2007, pp. 45–65.
- Peabody Museum of Archaeology and Ethnology, Harvard University. Ocarinas of the Americas: Music Made in Clay. Digital exhibition.
- The Metropolitan Museum of Art. Xun, Chinese vessel flute, object no. 2005.14. Department of Musical Instruments.
- Thrasher, Alan R. “Xun.” Grove Music Online. Oxford University Press.
Scores, Recordings, and Primary Musical Material
- Janáček, Leoš. Říkadla pro komorní sbor a 10 nástrojů, JW V/16–17. Vienna: Universal Edition, 1929, plate U.E. 9688.
- Ligeti, György. Konzert für Violine und Orchester (1990/92). Mainz: Schott Music, 2002.
- Gruppo Ocarinistico Budriese. Rossini e la Terracotta. C.I.M.E., 1992.
- Ligeti: Concertos for Cello, Violin and Piano. Saschko Gawriloff, Jean-Guihen Queyras, Pierre-Laurent Aimard, Ensemble InterContemporain, Pierre Boulez. Deutsche Grammophon, 1994.
- Sojiro. Ocarina no Mori Kara. Universal Music Japan, 2009.
- Nintendo EAD. The Legend of Zelda: Ocarina of Time. Nintendo 64. Nintendo, 1998.