JA. RA. Lee, and JO. D.. Reiss, "Real-Time Sound Synthesis of Audience Applause," J. Audio Eng. Soc., vol. 68, no. 4, pp. 261-272, (2020 April.). doi: https://doi.org/10.17743/jaes.2020.0006
JA. RA. Lee, and JO. D.. Reiss, "Real-Time Sound Synthesis of Audience Applause," J. Audio Eng. Soc., vol. 68 Issue 4 pp. 261-272, (2020 April.). doi: https://doi.org/10.17743/jaes.2020.0006
Abstract: We investigate a procedural model for synthesizing applause sounds that contains novel aspects to ensure high quality and usability. Synthesis of a single clap is generated as a result of filtering a noise source and applying an envelope with exponential decay, based on prior art and existing experimental data. An ensemble approach is introduced to simulate many clappers in a spatially distributed environment. This renders how applause interacts with the space in which it is hosted, including the room impulse response, and where each clap is situated relative to the listener’s position. The applause features realistic build-up and fadeout based on natural audience response. The implementation contains meaningful parameters that allow a user to configure and change the sound to achieve a multitude of different types of applause, such as an “enthusiasm parameter” to simulate the greater perceived intensity from an enthusiastic audience. Subjective evaluation was performed to compare our method against recorded samples and four other popular sound synthesis techniques. It showed that the pro- posed implementation produced significantly more realistic results than other forms of applause synthesis, and it was almost indistinguishable from real-life recordings.
@article{lee2020real-time,
author={lee, jake ryan rajjayabun and reiss, joshua d.},
journal={journal of the audio engineering society},
title={real-time sound synthesis of audience applause},
year={2020},
volume={68},
number={4},
pages={261-272},
doi={https://doi.org/10.17743/jaes.2020.0006},
month={april},}
@article{lee2020real-time,
author={lee, jake ryan rajjayabun and reiss, joshua d.},
journal={journal of the audio engineering society},
title={real-time sound synthesis of audience applause},
year={2020},
volume={68},
number={4},
pages={261-272},
doi={https://doi.org/10.17743/jaes.2020.0006},
month={april},
abstract={we investigate a procedural model for synthesizing applause sounds that contains novel aspects to ensure high quality and usability. synthesis of a single clap is generated as a result of filtering a noise source and applying an envelope with exponential decay, based on prior art and existing experimental data. an ensemble approach is introduced to simulate many clappers in a spatially distributed environment. this renders how applause interacts with the space in which it is hosted, including the room impulse response, and where each clap is situated relative to the listener’s position. the applause features realistic build-up and fadeout based on natural audience response. the implementation contains meaningful parameters that allow a user to configure and change the sound to achieve a multitude of different types of applause, such as an “enthusiasm parameter” to simulate the greater perceived intensity from an enthusiastic audience. subjective evaluation was performed to compare our method against recorded samples and four other popular sound synthesis techniques. it showed that the pro- posed implementation produced significantly more realistic results than other forms of applause synthesis, and it was almost indistinguishable from real-life recordings.},}
TY - paper
TI - Real-Time Sound Synthesis of Audience Applause
SP - 261
EP - 272
AU - Lee, Jake Ryan Rajjayabun
AU - Reiss, Joshua D.
PY - 2020
JO - Journal of the Audio Engineering Society
IS - 4
VO - 68
VL - 68
Y1 - April 2020
TY - paper
TI - Real-Time Sound Synthesis of Audience Applause
SP - 261
EP - 272
AU - Lee, Jake Ryan Rajjayabun
AU - Reiss, Joshua D.
PY - 2020
JO - Journal of the Audio Engineering Society
IS - 4
VO - 68
VL - 68
Y1 - April 2020
AB - We investigate a procedural model for synthesizing applause sounds that contains novel aspects to ensure high quality and usability. Synthesis of a single clap is generated as a result of filtering a noise source and applying an envelope with exponential decay, based on prior art and existing experimental data. An ensemble approach is introduced to simulate many clappers in a spatially distributed environment. This renders how applause interacts with the space in which it is hosted, including the room impulse response, and where each clap is situated relative to the listener’s position. The applause features realistic build-up and fadeout based on natural audience response. The implementation contains meaningful parameters that allow a user to configure and change the sound to achieve a multitude of different types of applause, such as an “enthusiasm parameter” to simulate the greater perceived intensity from an enthusiastic audience. Subjective evaluation was performed to compare our method against recorded samples and four other popular sound synthesis techniques. It showed that the pro- posed implementation produced significantly more realistic results than other forms of applause synthesis, and it was almost indistinguishable from real-life recordings.
We investigate a procedural model for synthesizing applause sounds that contains novel aspects to ensure high quality and usability. Synthesis of a single clap is generated as a result of filtering a noise source and applying an envelope with exponential decay, based on prior art and existing experimental data. An ensemble approach is introduced to simulate many clappers in a spatially distributed environment. This renders how applause interacts with the space in which it is hosted, including the room impulse response, and where each clap is situated relative to the listener’s position. The applause features realistic build-up and fadeout based on natural audience response. The implementation contains meaningful parameters that allow a user to configure and change the sound to achieve a multitude of different types of applause, such as an “enthusiasm parameter” to simulate the greater perceived intensity from an enthusiastic audience. Subjective evaluation was performed to compare our method against recorded samples and four other popular sound synthesis techniques. It showed that the pro- posed implementation produced significantly more realistic results than other forms of applause synthesis, and it was almost indistinguishable from real-life recordings.
Open Access
Authors:
Lee, Jake Ryan Rajjayabun; Reiss, Joshua D.
Affiliation:
Queen Mary University of London, London, UK JAES Volume 68 Issue 4 pp. 261-272; April 2020
Publication Date:
May 12, 2020Import into BibTeX
Permalink:
http://www.aes.org/e-lib/browse.cfm?elib=20732