Full Specifications

Switch TypeHall Effect
Stem MaterialMagnetic stem
Housing MaterialPolycarbonate
Spring TypeNo spring (magnetic force)
Factory LubedNot required
PCB Compatibility5-pin (Hall Effect PCB)
Actuation ForceVariable 0.1–4.0mm
Bottom-Out ForceN/A (analog input)
Pre-TravelUser-defined
Total Travel4mm
Sound ProfileSmooth Consistent Travel
Price~$9.00 per 10 switches

Editorial Review

Hall Effect switches like the Geon Raptor HE represent a fundamentally different approach to switch design. Rather than using physical contact between metal components to register a keypress, Hall Effect switches detect the magnetic field of a magnet embedded in the stem. As the stem moves down, its magnetic field changes relative to a Hall Effect sensor on the PCB, which converts this field change into position data. The result is a switch that can report analog position — not just on/off — and has no mechanical wear point.

The practical implications are significant for gaming. With a compatible Hall Effect keyboard like the Wooting 60HE or Geon F1-8K, the actuation point can be set anywhere from 0.1mm to 4.0mm through software. Want a 0.5mm hair-trigger for FPS games? Set it. Prefer 2.5mm for typing accuracy? Done. This configurability is impossible with traditional mechanical switches where actuation is fixed by the physical mechanism.

Analog input support is the other transformative feature. In compatible games, Hall Effect switches report partial travel as analog input — like a joystick axis. A key pressed halfway down can represent "walk" while fully pressed represents "run," without needing a separate thumbstick. This feature is still emerging in game support but represents a genuine evolution in keyboard gaming capability.

Feel-wise, Hall Effect switches are smooth throughout travel with no distinct bump or click. The magnetic force provides a spring-like return force that can be adjusted through stem design. The Raptor HE specifically is designed to feel similar to a medium-weight linear — smooth, consistent, and predictable. Without the physical contact of traditional switches, there is no scratchiness and no need for lubing.

Compatibility is the main limitation. Hall Effect switches require keyboards with Hall Effect sensing PCBs — standard MX hot-swap keyboards cannot use them. This means building or buying a specifically compatible board. The technology is newer and board options are more limited than traditional MX designs, though the ecosystem is growing rapidly as the gaming community recognizes the performance advantages.

Best Keyboards For These Switches

Wooting 60HE

The reference Hall Effect board — full software control of actuation point and analog input.

Wooting Two HE

Full-size Hall Effect board with complete rapid trigger and analog support.

Geon F1-8K

Geon's custom Hall Effect board designed specifically for Raptor HE switches.

Similar Switches

Where to Buy

Geon Official
Primary source — geonworks.com
Wooting Store
HE switches for Wooting boards
KBDFans
Check current stock
Amazon
Limited availability

Frequently Asked Questions

What is Hall Effect technology in keyboards?
Hall Effect sensing uses a magnetic field detector (Hall Effect sensor) on the PCB to measure the position of a magnet embedded in each switch stem. As the stem moves down, the magnetic field strength at the sensor changes. The PCB converts this field measurement into position data, enabling features like variable actuation point, rapid trigger (re-actuation without full reset), and analog input — all impossible with traditional contact-based switch designs.
What keyboards support Hall Effect switches?
Hall Effect switches require keyboards with Hall Effect PCBs — regular MX hot-swap boards cannot use them. Current compatible boards include the Wooting 60HE and Two HE (most popular for gaming), the Geon F1-8K, and a small number of other Hall Effect designs. The ecosystem is growing, with more board options becoming available each year as the technology gains adoption.
Can Hall Effect switches wear out?
Significantly less than traditional mechanical switches. The lack of physical contact between metal components eliminates the primary wear mechanism of traditional switches. There is no slider-on-housing contact point that degrades, no spring fatigue from metal-to-metal contact, and no actuator mechanism that wears from repeated flex. The theoretical lifespan of a Hall Effect switch far exceeds the rated 100 million keystroke figures for traditional switches.