Hello, I have been lurking around here for over a year and want to first thank everybody who contributes to this forum. It is very informative and many of the members are incredibly knowlegdable, I am very thankful to have found this forum. I have very little formal education in electronics, mechanical engineering and physics, 99% of what I know I have learned from searching the internet, so I aplogize if my questions seem elementary.
The idea for my OU device would be similar to harnessing the vibration caused by an out of balance wheel spun by an electric motor. Harnessing the vibration, by transferring the extra force of the vibration into a flywheel, instead of what normally happens...the kinetic energy destroying the chasis of the car.
Here is an animation of the mechanics...
[IMG][/IMG]
Found here
The blue is the input side and red is the output side. At 12:00 the red arm and shaft begin accelerating and at 3:00 catch up to and pass the blue input. The red arm is connected to a shaft which is connected to a flywheel by a one-way bearing.
The system uses a electric motor for input to the mechanical setup that spins out of balance, captures the extra force of the vibration, re-balancing or smoothing out the vibration, then connects to a flywheel, which is connected to a generator. My theory is increasing the power/force/watts enough to loop the input back to the generator and having a surplus of watts or free energy. The generator works also as a govenor. The drag from the govenor, speed of the rotation, path and distance the weight travels are all variables that have to be exactly tuned to run smoothly, otherwise there is vibration and different amounts of inertial thrust towards approx. the 5:30 direction.
What varibles am I missing?
I have built this using an Erector set and 6v motors for input and generator. After running for almost an hour screws began coming loose and had to shut it down. I am not familiar enough with an ohmeter to know what the wattage differential is from input to output is, but it is does show a flucuation from .8 volts to 1.3 volts on the output side. Not much, I know, but this is first attempt and with no other bearings than the one-way bearing. I will upload pictures if anybody is interested. Thanks.
The idea for my OU device would be similar to harnessing the vibration caused by an out of balance wheel spun by an electric motor. Harnessing the vibration, by transferring the extra force of the vibration into a flywheel, instead of what normally happens...the kinetic energy destroying the chasis of the car.
Here is an animation of the mechanics...
[IMG][/IMG]
Found here
The blue is the input side and red is the output side. At 12:00 the red arm and shaft begin accelerating and at 3:00 catch up to and pass the blue input. The red arm is connected to a shaft which is connected to a flywheel by a one-way bearing.
The system uses a electric motor for input to the mechanical setup that spins out of balance, captures the extra force of the vibration, re-balancing or smoothing out the vibration, then connects to a flywheel, which is connected to a generator. My theory is increasing the power/force/watts enough to loop the input back to the generator and having a surplus of watts or free energy. The generator works also as a govenor. The drag from the govenor, speed of the rotation, path and distance the weight travels are all variables that have to be exactly tuned to run smoothly, otherwise there is vibration and different amounts of inertial thrust towards approx. the 5:30 direction.
What varibles am I missing?
I have built this using an Erector set and 6v motors for input and generator. After running for almost an hour screws began coming loose and had to shut it down. I am not familiar enough with an ohmeter to know what the wattage differential is from input to output is, but it is does show a flucuation from .8 volts to 1.3 volts on the output side. Not much, I know, but this is first attempt and with no other bearings than the one-way bearing. I will upload pictures if anybody is interested. Thanks.
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