For years, my entire production workflow was dictated by the Ableton Live loop brace. I lived inside a rigid, perfectly quantifiable 4/4 grid. Every kick drum landed exactly where it was supposed to, every hi-hat pattern resolved neatly at the end of four bars, and every synth sequence looped back perfectly in time.
It is a highly efficient way to write club music, but eventually, it becomes incredibly predictable.
Moving towards the Oxi One MK II and exploring physical modular synthesis has fundamentally changed how I sequence. The biggest revelation hasn’t been the sound itself, but the timing. I am finally breaking away from the tyranny of the four-bar loop and experimenting with polymeters.
If you have spent your life locked in a 4/4 grid, the concept of polymeters can seem mathematically intimidating. However, operationally, they are just a way to create complex, evolving grooves that never seem to repeat exactly the same way twice.
Here is a basic primer on what polymeters are, how they work, and how to use them without turning your track into a chaotic mess.
The Tyranny of the 16-Step Sequence
To understand polymeters, you first have to understand what you are currently doing.
In a standard 4/4 dance track, almost everything is built on a 16-step sequence. Your kick drum hits on steps 1, 5, 9, and 13. Your snare hits on 5 and 13. Your bassline is a 16-step loop. Your lead synth is a 16-step loop.
Because everything is exactly 16 steps long, they all restart at the exact same millisecond. Bar 1 sounds identical to Bar 2, Bar 3, and Bar 4. To create movement, you have to manually automate filters or draw in new notes. The sequence itself is static.
What is a Polymeter?
A polymeter occurs when you run two or more sequences of different lengths at the exact same tempo.
Imagine your kick and snare are happily chugging along on their standard 16-step loop.
Now, instead of writing a 16-step bassline, you write a bassline that is only 3 steps long.
Because the tempo is the same, those 3 steps play at the normal speed. But when the sequence reaches step 3, it immediately loops back to step 1.
Meanwhile, your drums are still marching towards step 16.
This means the start of your 3-step bassline will land on a completely different drum hit every single time it loops. It will shift across the grid, creating a complex, cascading groove that constantly evolves against the static backbone of the 4/4 beat.
Polymeter vs. Polyrhythm
Music theorists will quickly point out that what electronic musicians call “polyrhythms” are usually actually “polymeters.” A true polyrhythm occurs when you play different subdivisions of the exact same space (e.g., forcing 3 notes to play in the exact same physical time it takes to play 4 notes, like a triplet against straight eighths). A polymeter is what we are doing here: playing sequences of different lengths at the exact same underlying tempo. The 16th-note grid remains completely constant, but the patterns shift against each other. In the synth world, the terms are used interchangeably, but as you dig deeper into hardware sequencers, it is worth knowing the difference.
The Euclidean Euphony
If you want to dive deeper into alternative sequencing, look into Euclidean rhythms. Pioneered in the synth world by modules like the Mutable Instruments Grids or built into the Oxi One, Euclidean sequencing uses an algorithm to distribute a specific number of hits as evenly as possible across a sequence length. For example, asking for 5 hits across 16 steps generates a classic syncopated clave rhythm automatically. Combining Euclidean generation with polymetric lengths is a fast track to incredibly complex percussion.
The Math of the Loop (When Do They Align?)
The magic of polymeters is that they do eventually resolve and line up again, but it takes much longer than a standard four-bar loop. The length of time it takes for two different sequences to hit step 1 at the exact same time is determined by their least common multiple.
Here is a quick reference guide to common polymeter lengths running against a standard 16-step drum beat, and how many total steps it takes before the entire pattern resets:
| Length | Against | Steps Before Reset | Musical Result |
| 3 Steps | 16-Step Drums | 48 Steps (3 Bars) | Highly hypnotic, rapid shifting. Great for fast, driving techno basslines or arpeggios that continuously roll over the bar line. |
| 5 Steps | 16-Step Drums | 80 Steps (5 Bars) | Unpredictable and slightly jarring. Excellent for weird, syncopated modular bleeps or organic percussion that you don’t want to feel repetitive. |
| 7 Steps | 16-Step Drums | 112 Steps (7 Bars) | Complex and long-form. The sequence drifts so far across the grid that the listener loses track of the “one.” Perfect for evolving ambient melodies or deep dub techno chords. |
| 9 Steps | 16-Step Drums | 144 Steps (9 Bars) | A subtle shift. Because 9 is close to 8 (half of a 16-step sequence), it feels almost normal but slightly “off,” creating a lingering sense of tension. |
| 12 Steps | 16-Step Drums | 48 Steps (3 Bars) | Very musical and common. Often used to create a 3/4 waltz feel against a 4/4 beat. |
Spreadsheets vs. Play: The Hybrid Workflow
To be fair, sequencing this in an Ableton piano roll isn’t actually tedious. Once you understand independent clip loop lengths, it is fairly simple to execute purely in the box.
But building a production environment is largely about learning the strengths, weaknesses, and psychological impact of different equipment. None of this is absolute; it comes down to the individual. However, because I spend so much of my day working on a computer, diving into a DAW can quickly feel like spreadsheeting. It becomes a highly rigid, task-oriented process.
Hardware isn’t necessarily “easier.” In fact, wrestling with things like MIDI latency can be incredibly frustrating. But equipment like the Oxi One MK II doesn’t just calculate the math; it actively invites experimentation and play. I am far more likely to sit down and just “jam” for ten minutes on a physical sequencer than I am to boot up a blank Ableton project. The less I have to look at a screen right now, the better.
This all ties directly into my broader studio goal right now: strictly separating the phases of production. Writing, arranging, mixing, and mastering are entirely distinct psychological tasks, and trying to do them all at once on a single screen is a recipe for burnout.
My current workflow leans entirely into this separation. I use the hardware strictly for the “writing” phase. I will sit there and dial in a 5-step sequence against a 7-step sequence, let them run wild, and play around in ways I simply wouldn’t do with a mouse.
Once I have a polymetric groove that feels right, I turn Ableton Live into a glorified tape machine. I hit record and let the hardware run for five or six minutes, capturing that long, evolving, shifting performance as a single, massive audio file.
Only then do I switch my brain into the “arranging” phase. I take that long audio file, chop it up, process it, and arrange it within the Ableton grid. I am using the hardware to generate the play and the chaos, but I am using the DAW to wrangle that chaos into a finished, structured track.
(The ultimate goal is to eventually route that arrangement out of the computer entirely and mix it down on a physical console setup—but one step at a time).
Right now, it is the perfect marriage of sequencer freedom and digital control.