Merry Christmas Everybody.

A slightly more " pedestrian " video than the one I watched presented by Tinsel Koala.

https://www.youtube.com/watch?v=kIwHqV1NpHs

We should be able to move a little Mass with 20,000 volts!   

Cheers Graham.

Merry Christmas Everybody.

A slightly more " pedestrian " video than the one I watched presented by Tinsel Koala.

https://www.youtube.com/watch?v=kIwHqV1NpHs

We should be able to move a little Mass with 20,000 volts!   

Cheers Graham.

Merry Christmas Graham,

An interesting [thought provoking] demo, thank you!

Could you please share some details regarding:

(1) the metal ball diameter,
(2) weight {if you know it}
(3) sphere material {stainless, grade, ... if known},
(4) voltage {20KV DC?}, and consumed current {if measurable},
(5) distance of ball travel and approximate reverse dwell time and speed?

Might be a good CAE/CAD candidate "demo add-on."
Worth a try at any rate - to see if the simulation comes close to the experimental results.

Thanks in advance,

SL
 

The field equations indicate a spacial surface area effect dominates the electric field
The larger the diameter (and subsequent surface area), the less significant mass becomes.
According to mathematical theory, larger balls will have the potential to move more mass.

More to come....

Video update planned for later today.

Cheers Graham.

@Grumage

A question if possible. On your video, are the two non-moving balls secured to their present position in any way?

Observation: If they are, since the balls are 6" dia. and since the travel between the balls is 1 foot, maybe you can take a small thin wire coil tapped to the top of the center ball with a thin insulator while the center ball is centered between the two end balls and put that on a scope as it moves left and right.

The question I would have is what are the actual movements of the ball. It is a steady smooth movement or is it a collection of jagged micro nudges that are nudging the ball in each direction?

wattsup

As promised.   

https://www.youtube.com/watch?v=-4XlD4YP5Kc

Cheers Graham.

Hi Graham,

Thanks for the spec's, Excellent! 

Looking forward to reviewing what several premier CAE tools come up with.
May take a little while - have to set up the analysis and fit in some workstation time
[some of these take days to run, fix, and re-run].

Glad you clarified the florescent tube mystery - 40KV - at first glance, well - you
know - tubes are dark?   

Quite an impressive scenario you developed!

SmOky2 - maybe a good "optimization goal:"
  Voltage vs Size/Weight vs Distance/Speed?  Academic? - not entirely...

Also: recall Prof. Gerald H. Pollack, University of Washington, book/videos
"Fourth Phase of Water;"     ""Likes like like"""    Starts about 9:20 in video;
https://www.youtube.com/watch?v=i-T7tCMUDXU
   And; Water => free energy discussion at about 12:50.
Anyway, sometimes things may not be exactly what we "think" they should be. Oh well - TBD.

SL

1 coulomb on each ball
Placed 1 meter apart


F = something to the tune of 9^9 Newtons?
Of course our balls aren’t THAT big.....


But if you Do decide to go for it
Plz wear a faraday suit


You don’t need 40lbs of copper like mine
Thin steel wire armor will work
Try to avoid aluminum, your suit will ionize

Hey guys. See the following video of a test circuit I was testing
with this evening. I'd be interested to get some feedback on these test results:
The circuit is powered with a single AA battery. There are no other sources
of power to the circuit. Output has a 2000uF capacitor connected at the output
to try to collect 'radiant' energy from the oscillator switching spikes. This output capacitor
voltage is fed back to the battery to try to self loop the test setup. The battery voltage is
bouncing between 12.86V and 12.87V throughout the test run shown in the video.

(Sorry for the messy test clip leads, but when I am doing initial testing I often use
test clip leads so I can quickly make changes to the setup to try out and compare
different configurations.)

Blocking Oscillator With Feedback - Self Loop Test Setup
https://www.youtube.com/watch?v=RkbRvD0b2J0

What do you think? Choose one of the following:
a) Looks like probably a self-sustaining circuit, or very close.
b) Looks like it might be a self-sustaining circuit, but not so sure.
c) Can't really tell based on this video.
d) Over unity is impossible, so this circuit just can't be self-sustaining.
e) A light is lighting up quite bright while the battery voltage remains
   pretty stable, so it must be over unity.
f) This is the secret to over unity.
g) Void, you must have rocks in your head.


All the best...

Hey guys. See the following video of a test circuit I was testing
with this evening. I'd be interested to get some feedback on these test results:
The circuit is powered with a single AA battery. There are no other sources
of power to the circuit. Output has a 2000uF capacitor connected at the output
to try to collect 'radiant' energy from the oscillator switching spikes. This output capacitor
voltage is fed back to the battery to try to self loop the test setup. The battery voltage is
bouncing between 12.86V and 12.87V throughout the test run shown in the video.

(Sorry for the messy test clip leads, but when I am doing initial testing I often use
test clip leads so I can quickly make changes to the setup to try out and compare
different configurations.)

Blocking Oscillator With Feedback - Self Loop Test Setup
https://www.youtube.com/watch?v=RkbRvD0b2J0

What do you think? Choose one of the following:
a) Looks like probably a self-sustaining circuit, or very close.
b) Looks like it might be a self-sustaining circuit, but not so sure.
c) Can't really tell based on this video.
d) Over unity is impossible, so this circuit just can't be self-sustaining.
e) A light is lighting up quite bright while the battery voltage remains
   pretty stable, so it must be over unity.
f) This is the secret to over unity.
g) Void, you must have rocks in your head.


All the best...
 

Well!!  For a guy that has no problem hitting others when they say that is possible to get self runners, I SHOULD give you the same treatment... But I will not..  Give us more date on how you have conduct your experiment and we can conclude on results..