crwdns2933423:0crwdne2933423:0

crwdns2933803:015crwdne2933803:0

crwdns2933797:0Jeff Suovanencrwdnd2933797:0crwdne2933797:0

crwdns2936043:0crwdne2936043:0 crwdns2933505:0crwdne2933505:0 Jeff Suovanen

crwdns2933769:0crwdne2933769:0
crwdns2933771:0crwdne2933771:0
crwdns2933801:0crwdne2933801:0

crwdns2933807:0crwdne2933807:0

-[* black] To read the turning of the bezel the Galaxy Watch uses a different approach than the [guide|113044|optical encoder of the Apple Watch|stepid=216189|new_window=true].
- [* black] There are three [https://en.wikipedia.org/wiki/Hall_effect_sensor|hall sensors|new_window=true] on the small PCB that have the same distance to each other as the groves on the bezel.
- [* black] And every third grove there is a small magnet inside it.
- [* black] Now when the bezel is turned two of the three sensors read a change in their magnetic field. Either on/off or off/on. The third sensor does not read a change. With this method it can be clearly determined in which direction the bezel is rotated.
+[* black] To read the turning of the bezel, the Galaxy Watch uses a different approach than the [guide|113044|optical encoder of the Apple Watch|stepid=216189|new_window=true].
+ [* black] There are three [https://en.wikipedia.org/wiki/Hall_effect_sensor|hall sensors|new_window=true] on the small PCB, at the same distance from each other as the grooves on the bezel.
+ [* black] And every third groove has a small magnet inside.
+ [* black] When the bezel is turned, two of the three sensors read a change in their magnetic field (either on/off or off/on). The third sensor does not read a change. With this method, it can be clearly determined in which direction the bezel is rotated.