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Discrete-time modelling of musical instruments

REVIEW ARTICLE

Vesa Välimäki, Jyri Pakarinen, Cumhur Erkut and Matti Karjalainen

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This article describes physical modelling techniques that can be used for simulating musical instruments. The methods are closely related to digital signal processing. They discretize the system with respect to time, because the aim is to run the simulation using a computer. The physics-based modelling methods can be classified as mass–spring, modal, wave digital, finite difference, digital waveguide and source–filter models. We present the basic theory and a discussion on possible extensions for each modelling technique. For some methods, a simple model example is chosen from the existing literature demonstrating a typical use of the method. For instance, in the case of the digital waveguide modelling technique a vibrating string model is discussed, and in the case of the wave digital filter technique we present a classical piano hammer model. We tackle some nonlinear and time-varying models and include new results on the digital waveguide modelling of a nonlinear string. Current trends and future directions in physical modelling of musical instruments are discussed.


PACS

43.75.Yy Instrumentation and techniques for measurements

43.75.Gh Plucked stringed instruments

43.75.De Bowed stringed instruments

43.75.Mn Pianos and other keyboard stringed instruments

43.70.Bk Models and theories of speech production

Subjects

Biological physics

Dates

Issue 1 (January 2006)

Received 31 March 2005, in final form 1 September 2005

Published 17 October 2005



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