h a l f b a k e r yAssume a hemispherical cow.
add, search, annotate, link, view, overview, recent, by name, random
news, help, about, links, report a problem
browse anonymously,
or get an account
and write.
register,
|
|
|
Please log in.
Before you can vote, you need to register.
Please log in or create an account.
|
2D and 3D chladni medical centrifuge
3D wiggle a fluid with new [link] self emerging cymatic cells; UV makes it turn to jello: pluck out 1uM samples from lumen and lumen edge of the new watershapes; 1.6 billion separate things in a 4 cm^2 puck | |
When you wiggle water with acoustics it takes on novel
shapes, and they just discovered more of them
(Hedgehog is one)[link]. Ripple top and maybe standing
wave and laminar flow might be other familiar examples.
A big loop called a hadley cell is another.
I think novel water additives can
change the number of
hydration shells of molecules, and that could effect the
watershapes acoustics can make. It's likely additives
with novel acoustics can generate more kinds of standing
shapes in water. These might be similar to 2D or 3D
"vibrating sand" Chladni shapes.
So, use it in a way analogous to a centrifuge. Just let
some particles hang around in a (new library) standing-
wave shape in water until the particles mass sort into
little heaps, particularly at edges where water cell
meets water cell, and at the lumen space between cell
edges. The microparticles, like chladni sand then build
up with order (and predictability).
Extracting 2D/3D centrifuged stuff: expose the
water/additive solution to UV so the water turns to
tough jello. Pull out the 4cm jello round, and if an
automated sampler has 1 micrometer needle pluck
resolution that is a little less than 1.6 billion different
sampling points. if the needle sampler has 40 levels of
depth possible that is a little less than 64 billion separate
grabable chemical/particulate areas.
Similarly if the jello melts with a laser, from cymatics (or
"rightsize" indicator dye particles) you can predict all the
places with the chemical you want and then zap those
areas with a laser to liquefy the jello puck at just those
points. To get volumes of stuff just squeeze it like a
sponge to get your preferred product out. That's a high
throughput separation use.
So there it is, a 2D, 3D Chladni centrifuge where you can
actually get the stuff out to further analyze/use it.
Other notes:
Another possible use for Chladni 3D and new water
shapes mass sortation is use it on petroleum, and use
vibration to push particulates to the base, removing
sulfur, reducing pollution. The acoustic transducers
would do it a little like acoustic zone refining of oil in a
container.
New shapes of water
https://physics.aps.org/articles/v13/200 [beanangel, Jan 02 2021]
[link]
|
|
Cool. 3D Chladni patterns are called Cymatics. |
|
|
The Abyss's water control. |
|
|
Wouldn't a specific wiggle heavily depend on the complex environment shape? as Chladni patterns depend on the plate used and an orchestra's sound depends on setup and concert hall architecture. |
|
|
Well, since it all happens in a centrifuge puck/dish/tube there is an opportunity to model those simple shapes of container extensively. |
|
|
// and new water shapes mass sortation is changing the fluid to petroleum // |
|
|
That's a cool trick. Where does the carbon come from ? Short-chain or long-chain ? Aryl or allyl ? |
|
|
Can it do water into wine, too ? |
|
|
[8th] I changed it so it makes sense now! |
|
|
um. Okay you can add additives to water to make it respond differently to sound waves, creating different standing waves. You lost me at the part where it's useful for anything. |
|
|
//jello// So the idea is mass creation of the pattern created by the standing wave, by hardening the additive? Like if you have a need for 10 million plastic spheres this is a cheap way to make them? |
|
|
// I changed it so it makes sense now! // |
|
|
Jolly good. Now you merely need to revise all your other ideas in the same way... |
|
|
[Voice], "You lost me at the point where it's useful for
anything".. ->I changed the title to Medical Centrifuge. |
|
|
Thank you, I had simply thought a better centrifuge would
be obviously useful everywhere people separate things,
from a drop of bodily fluid, to an industrial chemical
reaction mixture's separate products. |
|
|
But just to be clear: despite the title, this is not a
centrifuge - is that right? |
|
|
Yes, though like the majority of [beanie] ideas it does appear to go in ever-decreasing circles... |
|
|
Beany, I'm beginning to understand some of your writing, and that scares me. |
|
|
Doing a [beanangel] step. Couldn't this be a molecular computer doing calculations. Set amounts of placed, graded molecules as input flowing under a 3D Chladni shake and a G-curve to produce a distribution of sizes and placements as an output. |
|
|
actually, [wjt] that's really cool. there's a phrase "gravitometric computing" but I have not looked that phrase up yet. |
|
|
It's essentially an analog simulation technology, similar to the "circulating liquid" analog economics models, which are fascinating. |
|
|
Before the availability of cheap supercomputing, it was usef by geologists to model the behaviour of dissimilar strata using coloured clays. |
|
| |