DrumSpillage 2

Load 'Bass Drum' engine on Pad 1.

Adjust 'Pitch Decay' for initial transient punch.

Use the 'Algorithm' toggle to find the sweet spot between sine and square saturation.

Apply the internal high-pass filter to clear sub-muddiness.

Export individual WAV for further processing.

Load a high-frequency engine (e.g., Hi-Hat/Noise).

Enable the 'Genetic Mutator' on a 1/16th note sequence.

Automate the 'Decay' parameter via an LFO.

Record the output to a new audio track while the mutation runs.

Select the best 'happy accidents' from the recording.

Layer DrumSpillage on a MIDI track alongside a snare sample.

Select the 'Membrane' synthesis engine.

Tune the DrumSpillage pitch to match the fundamental frequency of the sample.

Use the 'Internal Sequencer' to add slight micro-timing offsets for a 'human' feel.

Mix the synthetic 'tail' into the acoustic 'transient'.

Create a base 'UI Click' sound using FM synthesis.

Utilize the modulation matrix to link velocity to pitch.

Trigger the pad at different velocities to hear the algorithmic variations.

Batch export the variations for implementation in Unity or Unreal Engine.

Map a MIDI controller (e.g., Launchpad) to DrumSpillage pads.

Assign knobs to 'Frequency' and 'Resonance' parameters.

Use the 'Mute/Solo' function on the internal sequencer for build-ups.

Real-time tweak the 'Drive' parameter to increase energy during the drop.

Set up a polyphonic sequence using the 'Model 09' engine.

Apply heavy internal distortion and long decay times.

Use 'Host Sync' LFOs to create rhythmic 'pumping' effects.

Automate the 'Filter Cutoff' to build tension over 16 bars.

Open the 'Model' panel to show the signal flow.

Adjust 'Operator Ratio' in FM mode to show harmonic changes.

Toggle between waveforms to demonstrate timbre differences.

Use the 'Scope' view (if DAW-supported) to visualize the transient shape.