Fundamentals of Synthesis II

Category Recording & Music Production

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Associated Courses

Overview

The Fundamentals of Synthesis II course provides an in-depth exploration of modern and advanced synthesis techniques used in contemporary music production, sound design, and media scoring. Students move beyond foundational subtractive synthesis to study frequency modulation, wavetable, additive, physical modeling, granular synthesis, and advanced hybrid workflows. Emphasis is placed on understanding how sound is generated at a spectral and structural level, how modulation shapes timbre over time, and how complex synthesis engines are controlled and performed in modern digital environments. The course also includes practical training with a range of popular software synthesizers, allowing students to apply synthesis concepts across multiple platforms. This platform-agnostic approach builds adaptable skills that prepare students for professional workflows and future software developments.

Module One: FM Synthesis

Module Two: Wavetable Synthesis

This module focuses on wavetable synthesis as a modern digital synthesis method built around scanning and morphing through evolving waveforms. Students learn how wavetable position, interpolation methods, and spectral complexity affect timbre over time, and how modulation enables dynamic, animated sounds.

Module Three: Additive Synthesis & Physical Modeling

This module explores sound creation from the ground up, beginning with additive synthesis and extending into physical modeling techniques. Students learn how complex sounds are constructed from individual sine-wave components by manipulating harmonics, partials, and overtones. The second half of the module introduces physical modeling synthesis, where sound is generated by simulating real-world acoustic behaviors such as vibrating strings, resonant bodies, and material properties.

Module Four: Advanced Control, Modulation & Sound Design

This module develops advanced modulation and control techniques used in professional sound design and expressive performance. Students explore complex modulation systems including nested modulators, envelope followers, random sources, step sequencers, and macro-based control surfaces such as XY pads. Audio-rate modulation techniques and advanced effects routing.

Module Five: Granular Synthesis & Sampling

This module examines granular synthesis as a time-domain approach to sound manipulation, where audio is broken into microscopic grains and reorganized to create new textures. Students learn how grain size, density, pitch, and distribution influence sonic character, enabling techniques such as extreme time-stretching, pitch-shifting, and texture generation.

Module Six: Sound Dissection & Recreation

This module focuses on analytical listening and practical synthesis skills through sound dissection and recreation. Students learn how to identify oscillators, filters, envelopes, modulation sources, and effects within existing sounds using both critical listening and spectrum analysis tools. The module emphasizes reverse-engineering techniques to recreate classic and contemporary sounds.

This module introduces Frequency Modulation (FM) synthesis as a fundamentally different approach to sound creation compared to subtractive synthesis. Students explore how timbre is generated through the interaction between oscillators rather than filtering, beginning with the relationship between carriers and modulators. Core FM concepts such as operators, algorithms, modulation index, and frequency ratios are examined to explain how complex harmonic structures emerge from simple waveforms. This module focuses on wavetable synthesis as a modern digital synthesis method built around scanning and morphing through evolving waveforms. Students learn how wavetable position, interpolation methods, and spectral complexity affect timbre over time, and how modulation enables dynamic, animated sounds. This module explores sound creation from the ground up, beginning with additive synthesis and extending into physical modeling techniques. Students learn how complex sounds are constructed from individual sine-wave components by manipulating harmonics, partials, and overtones. The second half of the module introduces physical modeling synthesis, where sound is generated by simulating real-world acoustic behaviors such as vibrating strings, resonant bodies, and material properties. This module develops advanced modulation and control techniques used in professional sound design and expressive performance. Students explore complex modulation systems including nested modulators, envelope followers, random sources, step sequencers, and macro-based control surfaces such as XY pads. Audio-rate modulation techniques and advanced effects routing. This module examines granular synthesis as a time-domain approach to sound manipulation, where audio is broken into microscopic grains and reorganized to create new textures. Students learn how grain size, density, pitch, and distribution influence sonic character, enabling techniques such as extreme time-stretching, pitch-shifting, and texture generation. This module focuses on analytical listening and practical synthesis skills through sound dissection and recreation. Students learn how to identify oscillators, filters, envelopes, modulation sources, and effects within existing sounds using both critical listening and spectrum analysis tools. The module emphasizes reverse-engineering techniques to recreate classic and contemporary sounds.

Requirements

Required Hardware (minimum): Laptop Computer (PC  or Mac) Specifications: Minimum 3.0 GHz Processor 16GB RAM (64 Bit) 256GB SSD

DETAILS TO KNOW

Shareable Certificate

Taught in English

Self-paced Learning

Course Evaluations: 6 Quizzes & 1 Final Exam

Estimated Time to Complete: 15-20 Hours

Course Availability: On-Demand