" is there any way to incorporate this decelerating power-routing into only the break system? Sorry, I like to experiment with things unknown "
Sure. in cars, the charging function is unnoticable as you coast there isnt much drag at all. (you can charge a car battery on .5 amps as long is there is more power going in than comming out) When you hit the brakes, the effect is essentialy "throttled" to produce enough drag to help the normal brake system slow the car down. I'm not well versed on the internal construction of these large motors and how they achieve the differential drag on demand but its a subject of study in my work and I'll report more as I learn.
Edit: Meh.. there are some complex mechanical workings that aid in the drag effect that would make it impractical for this. At least now. I think we should focus on the go and worry about the slow later. no one needs to stop.
WE are WILD right!
Im looking into brushless electric motor design. I see some people on youtube have some working concepts most of wich seem to encorporate an external motor driving the wheels via some sort of mechanic linkage.
I personally envision the wheel being part of the motor with its inner lining as the reluctor and the coils affixed to the axis.
Need to figure out:
1. How much kenetic potential is required to propel a person of average wieght beyond the force of there own skating action.
2. What is the minimum motor size currently in production (or in theory) that can produce the required kenetic force for a resonable sustained amount of time.
3. What is the best configuration to achive the torque, speed, and duty cycle requirements (i.e. AC motor, DC motor, LI battery, other??) and list the pros and cons of each.
This I feel is the most challenging area. everything else can be designed around this.