Octane, MAYA’s next-generation flipper technology, had its first public outing within hours of filing the patent application. That’s why I’m catching up on the marketing activity that should have happened before the event now in the week that follows! If you missed the demo at the show, there’s a 2-minute video demonstration below. If you want to go in deep, there is a dedicated Octane section of this site.

The MAYA Octane exhibit on the main hall floor at UK Pinfest 2026: a banner explaining the platform, a small display box of MAYA Pinball Amazon store items, an interactive demo enclosure behind clear acrylic, and an 80s Bally machine on the right with its original flippers replaced by the Octane system
The exhibit on the main hall floor. Left to right: a banner explaining the core concepts of the Octane flipper system, a small case of items from the MAYA Pinball Amazon store, the interactive demo enclosure behind clear acrylic, and an 80s Bally machine with its original flippers removed and replaced by the Octane system. Four cables run through glands in the coin door to read the flipper buttons and power the Octane mechs inside, so visitors could feel the new system in a real machine as well as play with the bench demo.

The setup was a cabinet enclosure housing a MAYA Pinball power conditioning board (more on innovations contained in this to come in a future writing), an oscilloscope to monitor what the brain of the each Octane flipper driver sees, and two Octane flipper driver boards. One drove a bare flipper and knocker rig for a self-contained demo of regulation and knock recovery. The other was wired into a classic pinball machine on the show floor, so attendees could actually play a full game on Octane-controlled flippers rather than just watch a bench demo.

The core demonstration was a direct comparison. With Octane disengaged, the flipper power stroke ran on a conventional fixed-pulse drive, the same approach used across most of the industry. After the main power stroke, the flipper is held at reduced power. Knock it in this low power state without any form of end-of-stroke (EOS) switch, and it simply gives way. This is why the industry typically still uses an EOS switch on flippers.

With Octane engaged, the same coil is driven differently. The controller reads end-of-stroke directly from the coil’s own current, with no mechanical end-of-stroke switch at all. Firstly, the flipper can reliably power down to a hold state when the initial EOS is detected. Moreover, when the flipper is knocked, it recovers much faster and with greater sensitivity than possible using a physical switch. The system is engineered to cost less to assemble, have fewer parts to fail, and be more responsive than any indirect method of plunger position sensing involving a switch.

The other half of the demo, more relevant to the player, covered closed-loop current regulation: a settable current target, rather than the fixed-voltage or duty-cycle approach used elsewhere. Down-regulating over-specified coils gives thermal headroom. This effectively eliminates flipper fade in a way that is simply not possible with a conventional open-loop flipper drive system. The underlying control loop can shape the current into an arbitrary profile, providing limitless options for flipper feel, which is where a lot of the future work is headed. Octane is functional, but not yet a finished product. Watch this space closely!

More detail on the platform is up at mayapinball.com/octane.

The full contents of the MAYA mobile flipper lab display cabinet with the glass removed, showing a PC power supply, MAYA power-conditioning capacitors, two Octane flipper driver boards, a Rigol oscilloscope displaying a flat-topped flipper current trace, and the flipper and knocker demo rig behind its own glass panel
The full contents of the display cabinet, glass off. Almost everything in here is made or designed in-house at MAYA: the coils are wound in-house to our spec, the baseplates are custom designs with clinch nuts mounted using our own hydraulic press. The driver electronics, power conditioning, and the flipper and knocker rig itself are all original designs used as part of the R&D process, not off-the-shelf parts adapted to the job. Even so, bolt patterns and part dimensions are kept standard wherever possible for part interoperability with conventional pinball parts.