Biography
Sound simulation consists of recreating the acoustic characteristics of a real object or instrument through audio synthesis and processing techniques.
To simulate an acoustic instrument, sound designers usually analyze its timbre, time envelope (attack, decay, sustain, release), harmonic content, and nonlinear behaviors.
Subtractive synthesis uses harmonically rich oscillators (saw waves, square waves, noise) combined with filters to shape the spectrum, allowing the creation of sounds inspired by strings, brass, or other acoustic sources.
FM synthesis creates complex tones through frequency modulation and is often used to reproduce bells, metallic sounds, or digital textures.
Physical modeling synthesis directly simulates acoustic phenomena, such as string vibration, tube resonance, or the interaction between a membrane and a resonant body.
Convolution processing using impulse responses (IRs) makes it possible to reproduce the acoustic characteristics of a space or the behavior of a specific object.
Sampling techniques combine real recordings with processes such as pitch shifting, time stretching, or spectral filtering.
Modern sound design also uses spectral analysis, neural network modeling, and resynthesis techniques to generate highly realistic sounds.
In sound design, the goal is not always to create a perfect copy of a real instrument; it is often about capturing its sonic identity and transforming it into a new musical material.