Mockup by Brian Berrett demonstrates purely random movement stemming from a simple pendulum on a lever, with no load or restraint on the lever, other than simple friction in its pivot action. The pendulum is made via a weight at the bottom of a bicycle wheel, whose axle is attached to a metallic frame that comprises the lever aspect. Brian says that this is one action that mathematicians have not been able to predict through any kind of formula.
See http://peswiki.com/index.php/OS:Milkovic-Berrett_Secondary_Oscillator_Generator
@ninjaphysics Still, the randomness of any system describes how chaotic the system is. Dont quote wikipedia to people on the inter-net . You look like a naive school-kid.
Culturealimprovement 6 months ago
@Culturealimprovement
From the article on Chaos Theory in Wikipedia
..Small differences in initial conditions (such as those due to rounding errors in numerical computation) yield widely diverging outcomes for chaotic systems, rendering long-term prediction impossible in general.[1] This happens even though these systems are deterministic, meaning that their future behavior is fully determined by their initial conditions, with no random elements involved...
ninjaphysics 6 months ago
@ninjaphysics Actually it does.
Culturealimprovement 6 months ago
chaos does NOT equal randomness.
ninjaphysics 1 year ago
give me back my 6 second
dottornava 1 year ago
Manque d'interet, En 6 secondes on ne voit rien du tout.
ibercaracole 2 years ago
6 secons is a very little demonstration...
Make a bigger fim for us!
rlolli 2 years ago
it only appears random
datzfast 2 years ago
Any two coupled 'oscillating' systems will produce a 'random' effect, unless they are perfectly tuned in harmony. Of note, is that tuned systems tend to reinforce each other, and maintain oscillations or reciprocating action, for much longer.
WarzSchoolchild 3 years ago
This thing will have a very high efficiency!
You should keep on completeing it :)
Nabo00o 3 years ago