Difficulty: Easy | Latency: Medium
You patch MIDI input to bytebeat variables — no rendering, no pre‑conversion.
The & (AND) operator masks bits, creating distinct harmonic resonances.
A sophisticated patch might convert a bassline’s pitch bends into bitwise shifts, a drum track’s kick hits into modulo operations ( t % 512 < 10 ), and a melody’s contour into XOR patterns. The patching process becomes an act of : listening to a MIDI file’s harmonic and rhythmic "DNA" and then constructing a minimal algebraic expression that exhibits the same emergent properties. Tools like Bytebeat MIDI Patchbay or custom scripts in Python (using mido and generating C or JavaScript code) analyze a MIDI track for repeated intervals, note densities, and velocities, then propose candidate arithmetic operations—replacing note pitch with (t>>shift) & mask and note length with t % period .
use_midi_defaults channel: 1 live_loop :midi_bytebeat do note, vel = sync "/midi:midi_input:1:note_on" freq = midi_to_hz(note) * 2
Difficulty: Easy | Latency: Medium
You patch MIDI input to bytebeat variables — no rendering, no pre‑conversion.
The & (AND) operator masks bits, creating distinct harmonic resonances.
A sophisticated patch might convert a bassline’s pitch bends into bitwise shifts, a drum track’s kick hits into modulo operations ( t % 512 < 10 ), and a melody’s contour into XOR patterns. The patching process becomes an act of : listening to a MIDI file’s harmonic and rhythmic "DNA" and then constructing a minimal algebraic expression that exhibits the same emergent properties. Tools like Bytebeat MIDI Patchbay or custom scripts in Python (using mido and generating C or JavaScript code) analyze a MIDI track for repeated intervals, note densities, and velocities, then propose candidate arithmetic operations—replacing note pitch with (t>>shift) & mask and note length with t % period .
use_midi_defaults channel: 1 live_loop :midi_bytebeat do note, vel = sync "/midi:midi_input:1:note_on" freq = midi_to_hz(note) * 2