This page provides all the documents related to the work conducted during this thesis. Click on the following links to navigate quickly through the page:
This thesis deals with the real-time control of singing voice synthesis by a graphic tablet, based on the digital musical instrument Cantor Digitalis.
The relevance of the graphic tablet for the intonation control is first considered, showing that the tablet provides a more precise pitch control than real voice in experimental conditions.
To extend the accuracy of control to any situation, a dynamic pitch warping method for intonation correction is developed. It enables to play under the pitch perception limens preserving at the same time the musician's expressivity. Objective and perceptive evaluations validate the method efficiency.
The use of new interfaces for musical expression raises the question of the modalities implied in the playing of the instrument. A third study reveals a preponderance of the visual modality over the auditive perception for the intonation control, due to the introduction of visual clues on the tablet surface. Nevertheless, this is compensated by the expressivity allowed by the interface.
The writing or drawing ability acquired since early childhood enables a quick acquisition of an expert control of the instrument. An ensemble of gestures dedicated to the control of different vocal effects is suggested.
Finally, an intensive practice of the instrument is made through the Chorus Digitalis ensemble, to test and promote our work. An artistic research has been conducted for the choice of the Cantor Digitalis' musical repertoire. Moreover, a visual feedback dedicated to the audience has been developed, extending the perception of the players' pitch and articulation.
Lyric voices | Other voices | Unreal voices | Sea sounds | Textures | Percussions |
---|---|---|---|---|---|
Soprano |
Baby |
Zombie 1 |
Foghorn |
Desert breeze |
Wood bells |
Alto |
Child |
Zombie 2 |
Seagull |
Pitched noise |
Ping pong |
Tenor |
Bulgarian |
Zombie 3 |
Wind 1 |
Ring modulator |
|
Bass |
Lion |
Zombie 4 |
Wind 2 |
Didjeridoo |
Name | Type | Correction | Setting | Playback speed | References |
---|---|---|---|---|---|
NoCorrection |
Audio | None | Normal | Figure 4.1 Figure 4.4 |
|
Discrete |
Audio | Discrete | Normal | Figure 4.1 Figure 4.4 |
|
DPW_A_normal |
Video Audio |
DPW Elastic |
A | Normal | Table 4.3 Figure 4.4 |
DPW_A_slow |
Video | DPW Elastic |
A | Slow (x3) | Table 4.3 Figure 4.4 |
DPW_B_normal |
Video Audio |
DPW Elastic |
B | Normal | Table 4.3 Figure 4.4 |
DPW_B_slow |
Video | DPW Elastique |
B | Slow (x3) | Table 4.3 Figure 4.4 |
DPW_C_normal |
Video Audio |
DPW Elastic |
C | Slow | Table 4.3 Figure 4.4 |
DPW_C_slow |
Video | DPW Elastic |
C | Slow (x3) | Table 4.3 Figure 4.4 |
Haken_D |
Audio | Haken | D | Normal | Table 4.3 Figure 4.4 |
Haken_E.wav |
Audio | Haken | E | Normale | Table 4.3 Figure 4.4 |
Haken_F |
Audio | Haken | F | Normal | Table 4.3 Figure 4.4 |
The Cantor Digitalis software is provided on a dedicated
website http://cantordigitalis.limsi.fr
Information about
Chorus
Digitalis can be found on this
link.
Grenoble Images Parole Signal Automatique laboratoire
UMR 5216 CNRS - Grenoble INP - Université Joseph Fourier - Université Stendhal