Spamton, a day in my life : Mechanical surprises !

seen from China

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seen from United States
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seen from United States
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seen from United States

seen from Costa Rica
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Spamton, a day in my life : Mechanical surprises !
A Belousov–Zhabotinsky reaction, or BZ reaction, is one of a class of reactions that serve as a classical example of non-equilibrium thermodynamics, resulting in the establishment of a nonlinear chemical oscillator.
never let an objectum into an antique store
Kinda wish that I was a music person.
Guitar pedals seem pretty dope. I'd love to make my own.
"Odd" instruments are fascinating to me. Subcontrabass trombone? Yes please! Subcontrabass flute? Yes! 12 string bass! Double neck guitars! Electric hurdy gurdy? Yes!! Theramin? Of course! Analog oscilloscopes! (See Silver Apples).
"Odd" generals are cool too. Plutonium jazz! Extra tone! Math rock (not what you think)! Outsider music.
I hope to see more experimentation with cybernetics and instruments. Can we get interesting sounds from instruments that can only be played with the help of more appendages?
Moog System 55
From Retrosynthads.blogspot.com
I Got A New Oscilloscope From Amazon A Must Have When It Come To Music Production, It Has Upped My Game 100% When It Comes To Sound Design You Can Get One Relitivly Cheep From Amazon Or Wish.com For Around 30$ to 40$ I Also Got A 3.5 mm Jack Capable Of Comnecting To The Oscilloscope To My Synthesizers Which I Have Few Of In My Home Music Studio
From flashing fireflies to cheering crowds: Physicists unlock secret to synchronisation
Physicists from Trinity have unlocked the secret that explains how large groups of individual "oscillators"—from flashing fireflies to cheering crowds, and from ticking clocks to clicking metronomes—tend to synchronize when in each other's company.
Their work, just published in the journal Physical Review Research, provides a mathematical basis for a phenomenon that has perplexed millions—their newly developed equations help explain how individual randomness seen in the natural world and in electrical and computer systems can give rise to synchronization.
We have long known that when one clock runs slightly faster than another, physically connecting them can make them tick in time. But making a large assembly of clocks synchronize in this way was thought to be much more difficult—or even impossible, if there are too many of them.
The Trinity researchers work, however, explains that synchronization can occur, even in very large assemblies of clocks.
Read more.