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Loudspeaker-based virtual acoustics allow multiple performers to interact with simulated environments that have been recreated within existing physical spaces. When creating these simulations, steps are taken to minimize the impact of the physical room structure on the virtual feedback system. As a result, capturing these spaces in recordings using traditional techniques can lead to unsatisfactory results that do not accurately represent the experience of being present in the room. By contrast, this paper presents a preliminary approach to capturing virtual environments by working with, rather than against the physical environment. Using a high number of spaced capture points, a methodology of realistically capturing a virtual acoustic environment is achieved for playback using immersive media systems. The results of preliminary recordings have shown versatility in capturing the virtual room response in a way that is both musical and realistic.
Author (s): Baran, Vlad;
Zhang, Kathleen Ying-Ying;
Rodriguez Escobar, Carolina;
Aydin, Aybar;
King, Richard;
Woszczyk, Wieslaw;
Affiliation:
McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research
(See document for exact affiliation information.)
AES Convention: 155
Paper Number:171
Publication Date:
2023-10-06
Session subject:
Room Acoustics
DOI:
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Baran, Vlad; Zhang, Kathleen Ying-Ying; Rodriguez Escobar, Carolina; Aydin, Aybar; King, Richard; Woszczyk, Wieslaw; 2023; The Optimization of Microphone Techniques for capturing Virtual Acoustic Environments [PDF]; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; Paper 171; Available from: https://aes.org/publications/elibrary-page/?id=22325
Baran, Vlad; Zhang, Kathleen Ying-Ying; Rodriguez Escobar, Carolina; Aydin, Aybar; King, Richard; Woszczyk, Wieslaw; The Optimization of Microphone Techniques for capturing Virtual Acoustic Environments [PDF]; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; McGill University - Music Research; Paper 171; 2023 Available: https://aes.org/publications/elibrary-page/?id=22325
@inproceedings{Baran2023the,
title={{The Optimization of Microphone Techniques for capturing Virtual Acoustic Environments}},
author={Baran, Vlad and Zhang, Kathleen Ying-Ying and Rodriguez Escobar, Carolina and Aydin, Aybar and King, Richard and Woszczyk, Wieslaw},
year={2023},
month={oct},
booktitle={Journal of the Audio Engineering Society},
publisher={Express Paper 171; AES Convention 155; October 2023},
number={171},
organization={AES},
}
TY – paper
TI – The Optimization of Microphone Techniques for capturing Virtual Acoustic Environments
AU – Baran, Vlad
AU – Zhang, Kathleen Ying-Ying
AU – Rodriguez Escobar, Carolina
AU – Aydin, Aybar
AU – King, Richard
AU – Woszczyk, Wieslaw
PY – 2023
JO – Journal of the Audio Engineering Society
VL – 171
Y1 – October 2023
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