reFX – Rippler v1.0.39 for WiN

Modal Synthesis Reimagined

Rippler offers modern modal synthesis using techniques like bidirectional energy coupling, combined with classic subtractive synthesis featuring two oscillators and two filters.

At its core, Rippler uses resonator blocks to reproduce the sounds of various instruments without using samples. With multiple modulated parameters, it can produce a wide variety of sounds—from pads and strings to drums and plucked instruments.

Modulation is everywhere

Each parameter can be modulated by multiple sources, such as envelopes and LFOs. A simple, drag-and-drop modulation system makes it easy to create complex, time-varying sounds. Shape any modulation connection with custom response curves using Mod Mapping—turn linear modulation into exponential, S-shaped, or stepped modulation to precisely control the impact of each source on the final result.

Modular effects chain

13 effects on the master bus and 12 on each layer—all in a fully modular chain. Combine effects in any order to create unique sonic textures, from subtle warmth to complete destruction.

Dual-layer architecture

Two independent synthesis layers with parallel and serial resonator routing. Bidirectional energy transfer between resonators creates rich, fluid tones that respond naturally to your playing.

MPE and Aftertouch

Bring your performance to life with expression and dynamic control. Full MPE support means that each note can have its own bend, pressure and slide.

Microtuning and MTS

Upload Scala .scl or .kbm files or use the MTS Client to tune Rippler to different keys. Key tracking can also be compressed, expanded, or remapped to create unique sonic possibilities.

Sidechain audio input directly into the resonators according to the notes you play. Transform any sound into a resonant tool for creative sound design.

Mode

Custom tuning with instant morphing for experimental sound design. Create custom resonator configurations and change them in real time.

12 Acoustic Models

Pre-tuned acoustic instrument models created using mathematical formulas and the finite element method produce realistic, yet synthesized and flexible sounds.