Summary: Teslaphoresis or the self-assembly of nano-sized materials at a distance; Rice University, 2016; Paul Cherukuri; Carter Kittrell; Lindsey Bornhoeft; Tesla coil.


Teslaphoresis or the self-assembly of nano-sized materials at a distance



As a follow-up to the entry I published yesterday in which I allowed these allegations claiming that most of the COVID-19 vaccines contain micro-circuitry to be voiced on my website in defence of freedom of speech and pluralism of opinion (values which unfortunately no longer seem to be upheld by the so-called West), here is a very short clip from Rice University (Houston, Texas) in which a new technology called Teslaphoresis (that is to say, the self-assembly of nano-sized materials at a distance, a process named in honour of the Croatian genius Nikola Tesla on account of his highly pioneering work in the domain of non-wire based transmission of electrical energy) is described by three members of the team which discovered this nano-technology of long-distance assembly of materials. Please note that this discovery was made several years prior to its being made public in April 2016. It goes without saying that such a technology is likely to find – or may have already found – a broad spectrum of applications in several industrial sectors or sub-sectors.

Apparently, Rice University was not the only place where such work was being carried out at least half a decade ago as I came across the following clip whilst I was trying to retrieve the original clip published by Rice University on YouTube:

Self-Assembling Wires: An exploration of a fascinating self-organizing system.
Feb 2015 
Stanford Complexity Group
https://youtu.be/PeHWqr9dz3c



Nanotubes assemble! Rice introduces Teslaphoresis


 [Click on the picture with the right button of your mouse, then on picture-in-picture’ in the menu and finally place your cursor on the picture at the bottom of the screen to display the Play’ icon [i.e. the white arrow pointing towards the right] to start the clip, which will thus play in ‘picture-in-picture mode.

If it does not, click on https://zb10-7gsop1v78.bitchute.com/PwuzxHtoe7Eo/qCRihkeTeAo3.mp4.

Source


TRANSCRIPT

Paul Cherukuri
What we’ve designed – and we’ve done this very, very quietly, but uhm we’re glad to now release it to the world – is this idea of Teslaphoresis, which is a discovery we made several years ago, and we’ve been developing it.

And Teslaphoresis is … the simplest way to understand it is self-assembly at a distance, just long-distance assembly of … of materials. And what we did was – because we’re at Rice [University] we had plenty of nanotubes around – so we uh decided to use nanotubes. And what we discovered was that these nanotubes can actually string together and form wires by themselves under this electric field.

Carter Kittrell
This fundamental idea uh of force acting at a distance, that you can have instead of, you know, when you normally build circuits and things like that, you have to have physical contact. Now we’re talking about building circuits without actually touching them.

Voice of a scientist (heard talking during the setting up of their Teslaphoresis generator):
Right? Just dispersing this.
 
Voice of another scientist.
Power on. And up.

Paul Cherukuri
And then I realised that a Tesla coil could actually do this, if you designed it in a way to create a very strong force field in front of it. And so that was the engineering aspect of it. And then once I designed the machine, then all sorts of discoveries started falling out of it.
 
Voice of a scientist
Oh, that was a good one.

Lindsey Bornhoeft
Teslaphoresis is one of those things – it’s a project that … there are just so many avenues, so many things that I think you could do with it, not just making conductive wires, but taking it in so many different places, not only just biomedical engineering and … but taking it into different industries like silicon chips or uhm exploring different conductive materials.

Carter Kittrell
This also ties in just generally, in nanotechnology, that self-assembly is very big – that is, if you can get things to build themselves, just as in biology, and we build ourselves.
 
Paul Cherukuri
When my son saw it, he called them webs. You know, he thought it was like Spiderman shooting webs out. And it really is. It’s very much like a web, sort of stringing out together, and that was a surprising finding. And the physics of that is actually a lot richer than what we had originally thought. So there is new science coming out of this as we go.
 
The description provided by Rice University reads as follows:

Carbon nanotubes in a dish assemble themselves into a nanowire in seconds under the influence of a custom-built Tesla coil created by scientists at Rice University.
But the scientists don’t limit their aspirations for the phenomenon they call Teslaphoresis to simple nanowires.
The team led by Rice research scientist Paul Cherukuri sees its invention as setting a path toward the assembly of matter from the bottom up on nano and macro scales.
There are even hints of a tractor beam effect in watching an assembled nanowire being pulled toward the coil.
Read more at  https://news.rice.edu/news/2016/nanotubes-assemble-rice-introduces-teslaphoresis


Some links
https://pubs.acs.org/doi/10.1021/acsnano.6b02313
https://www.designnews.com/alternative-energy/so-whats-teslaphoresis-and-how-can-it-make-self-assembling-circuits/94691254846621
https://techcrunch.com/2016/04/14/teslaphoresis-activated-self-assembling-carbon-nanotubes-look-even-cooler-than-they-sound
https://www.evolving-science.com/matter-energy-materials/teslaphoresis-and-self-assembly-carbon-nanotubes-00212

Some books
- George Trinkaus, Tesla Coil, 3rd ed., High Voltage Press, Portland, OR, 1989
- Tesla Coil: 500,000 volt lightning Generator, FuellessPower.com, 2003
- Mitch Tilbury, The ULTIMATE Tesla Coil Design and Construction Guide, McGraw-Hill, New York, 2008
- K.R. Scott, Bipolar Tesla Coils - Experimenter’s Guide, Willow-Tech Publishing, 2016

Lausanne, the lines above were posted on the twenty-eighth day of the sixth month of the year two thousand and twenty-two.