inertial propulsion with gyroscope

[telecom]

Interesting.
So the heavy thing can become light?

[conradelektro]

@Laurent: I have my first prototype nearly finished. The Chinese Stepper Motor Drivers work very well, up to 20.000 individually triggered steps per second are theoretically possible.

I also had other things to do.

Will have time to watch your video on Monday.

Greetings, Conrad

[conradelektro]

I go slowly forward too, but i make further experiments trying to isolate the property of those things

https://youtu.be/qyqyX7jgjZU

As Laurent explains in his latest video, and as Harvey Fiala writes in his two patent applications, the rotational speed of the arm carrying the gyroscope in a circle and the rotational speed of the gyroscope have to be in a certain relationship. Hopefully there is a range of rotational speed within which the thing can exhibit its "space drive property" (or whatever there is). First inconclusive tests by myself have shown that nothing is straight forward with this strange machine.

My personal conclusion:

- One needs two strong stepper motors which can turn the two arms carrying the gyroscope at variable speeds, and the top speed has to be pretty fast. Therefore two stepper motor drivers are needed which allow to control individual steps at high speed (or better said at a high frequency, at least 2000 steps per second, better 4000). E.g. two stepper motor drivers like that https://www.amazon.de/gp/product/B06XSD5XPR and two stepper motors like that https://www.amazon.de/gp/product/B072LVXVKW (or even stronger, depending on the weight of the gyroscopes mounted on the arms).

- One needs a microcontroller to control the two stepper motors. E. g, an Arduino Uno https://www.amazon.de/gp/product/B008GRTSV6

- The variable rotational speed of the arms carrying the gyroscopes also needs a mathematical algorithm which produces the variable delays between stepper motor steps, e.g. a sinus like curve.

- One must be able to set the speed of each gyroscope. Fortunately not at constantly varying speeds, therefore a pulse width modulated speed control for each gyroscope is enough which allows to search for a suitable rotational speed of the gyroscope (in relation to the rotational speed of the arm carrying the gyroscope). E.g. two speed controls like that https://www.amazon.de/gp/product/B07284TL3R

- One needs a set of batteries for each gyroscope (which is carried by the arm, best at the center of rotation above the axis of the stepper motor), a set of batteries for the two stepper motors and a set of batteries for the microcontroller.

So, it is not a simple project. Mechanically and electronically the requirements are quite high. Therefore it takes me so long (and I also have other things to do like living and relating to my environment). At the moment I have no speed control for the gyroscopes and I observe while they spin down (the gyroscopes are span up with a Dremel drill, like Laurent does in his latest video). My final design will have the nice gyroscopes from England with pulse width speed control  https://www.gyroscope.com/d.asp?product=SUPER2 (the gyroscope comes with a 6V DC motor)

The tests done by Laurent helped me a lot to design my setup. I started with a much too simple design.

If you have forgotten how my set up looks at the moment please look at these posts
http://overunity.com/17573/inertial-propulsion-with-gyroscope/msg518684/#msg518684
http://overunity.com/17573/inertial-propulsion-with-gyroscope/msg519133/#msg519133

Greetings, Conrad

[Hanelore]

Hi Laurent,

thanks for all your videos and craftsmanship!

Why not doing the ultimate pendulum test for any claimed unidirectional motivator?

http://www.nemitz.net/vernon/Pendulum.gif

I think the device of your video part 10 would be an ideal canditate!

http://www.youtube.com/watch?v=MjoyPU5t2ys#t=150

Put it in a transparent box and attache a laser pointer, which beams on a ruler.

See page 15 in Nasa-Paper "Assessing Potential Propulsion Breakthroughs":

http://ntrs.nasa.gov/archive/nasa/casi.ntrs.nasa.gov/20060000022.pdf

Hope to see this experiment on Youtube soon!!!

Keep it up, Hanelore

[telecom]

My interpretation of your video: what the layman expects to be a weightloss goes in fact into a circular movement of the arm. In other words, when the gyroscope is up (what looks like a weight loss) the force (which keeps the gyroscope up) translates into a force that turns the arm. And slowly this turning force is diminishing (the arm goes back into balance) when the gyroscope spins down. And this is not for free. The power you put into spinning up the gyroscope is slowly dissipated into turning the arm while it spins down. (All the friction losses make it very complicated. I ignored friction in my explanation.)

This is still "wonderful" because a spinning of the gyroscope is turned into a circular movement of the arm. The interesting part is that the spinning of the gyroscope and the turning of the arm are both "angular moments". Therefore conservation of moment is not violated.

Yesterday I finally got my new stepper motor drivers
Greetings, Conrad

Hi Conrad,
when saying this you imply that there is a transmission between the gyro and the precession.
But I don't see any such mechanism.