This paper describes the mapping of embodied metaphors found within physical systems to the spatial organization of voices and timbral processes. The intention of such an approach is to enhance the clarity and richness of connections between performance gestures and sonic structures. Previ- ous system iterations have presented mappings informed by ecological–embodied metaphors of dynamic forces as a means to bridge cross-domain performance events across physical and figurative planes. The first iteration sought to reify gravitationally based tonal pitch space models by map- ping melodic syntax computations (such as attraction, tension, and inertia analogues) to in–kind parameters of a flocking algorithm as a method of dynamic audio spatialization. Given the embodied physical bases implied by musical models proposed by Lerdahl and Smalley, we present a system that further explores the ecological bases of musical abstraction through the lens of force–based mapping models for spatial audio and timbral processing. The present iteration of the system utilizes a physics engine in a game development environment as a base for a practice–led explora- tion of mappings encompassing a wider variety of force–relational dynamics (derived from instrumental note–events) as applied to the evolution of spatial and timbral gestures. A particular focus is the treatment of energy-motion trajectories within the system’s mapping. While spatialization and diffusion is an obvious output modality for such a mapping, practice–led explorations of these embodied concepts, as facilitated by this system, may also inform a relational model of timbral connections.
|Title of host publication||Unknown Host Publication|
|Publisher||Korean Electro-Acoustic Music Society|
|Number of pages||8|
|Publication status||Accepted/In press - 19 Jun 2016|
|Event||Korean Electro-Acoustic Music Society Annual Conference - Seoul National University|
Duration: 19 Jun 2016 → …
|Conference||Korean Electro-Acoustic Music Society Annual Conference|
|Period||19/06/16 → …|
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- embodied cognition
- music performance
- physical modelling