Two Stage Mechanical Oscillator Part III - (Measurements)

Here are the measurements for the Two-Stage Mechanical Oscillator. It was a bit difficult trying to find a good instrument to try to measure with. I finally found these "Belt Tension Gauges", they worked like a charm.

More scientific accuracy is out of my realm and would require a laboratory team or something. But I think these make the point very well.

I would like to say this but can't because there are more accurate measurement methods out there, but I am confident there is more energy coming out of the thing than what is going in. You can look at it and it does indeed appear to be just that.

The only thing I didn't do was measure distance, but just by looking at it, it appears that the input and output distances are very near the same and does not have a very big difference between the two, maybe around an inch or two.

So, force times distance equals work. The force is the pounds in this case and then the distance can be gauged just by looking at it. If a curved tape measure was used then it would probably be exactly the same as the estimated and observed distance.

Have a great one and thanks for watching. Please LIKE, SHARE, COMMENT and SUBSCRIBE.
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[innovationsforall]

I still think this is the best TSO demonstration on the YT!

[innovationsforall]

Nice work! Higher the pendulum goes, higher the velocity in vertical point, therefore higher force. It is quadratic multiplication increase, so various angles should be measured. I am working on same experiment. Currently working on my workshop, looking forward continuing... Thanks for sharing!

[normanboll]

The way I would measure this is 1. use a weigh on a rope to tap the pendulum and keep it going. Then weight times distance is the work in. 2. use an additional weight on the output side that is lifted and measure how many times and how far and you will know the work out and thus the efficiency. 1. above may require come escapement like is in a clock to get the push at the right time. In 2. above it wold be best if the lifted weight was allowed to slide off the the side and another one lifted up to make it very clear that when that weight drops it is not affecting the machine.
Keep trying to get some solid measurements.

[mik]

Makes me think, if the pendulum was offset from centre and made to go around with a small motor, would it have an amplification of output to input and what frequency would that happen at, supposing it did ?

[zlackbiro]

Your setup has too many losses. First of all, your construction should be from a steel, not wood. Your pendulum holder should not have wobbly efect from asside, just 100% back and forward (rotation). The output should not have elastic ropes or similar. Should be steel rods just like in pendulum, only rotation force, no side effects. The main base of the construction should be bolted to a concrete bottom/100% hard surface with no wobbly effect. All stress should be manifested only to output (up and down). When you achieve the requirements, you will get full potential of the output, that means, in ideal conditions like no air resistance on the pendulum (vacum) you can achieve up to 20 times overunity. In medium conditions, 9 to 12 times overunity. However, even in 2 times overunity, you can succeed. Thats how this invention is good and tolerant to forgive a bad operational conditions. Dont forget to give the credit to Veljko Milkovic, the Serbian inventor of this amazing device.