Flying Saucers?

My apologies LTAM for simple one posts while you cover the full spectrum of discussion.


Fortunately that most recent paper has Matlab code here: https://github.com/ziyanzzhu/ttlg

There are matlab to python converters:

https://www.techwalla.com/articles/how-to-convert-matlab-scripts-to-python

Might need to see how this could be pulled apart for a Miles' perspective? A big effort to be sure:

https://www.techwalla.com/articles/how-to-convert-matlab-scripts-to-python

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No apologies necessary Cr6. My main mission, besides being a responsible person trying to cope in the real world, is to learn as much as I can about the charge field and spread the word. I don’t need to tell you, this new physics greatly clarifies our understanding and will change the world. Meanwhile, we all see things differently. Not being nearly half as smart as I’d like, I force myself to work harder by sharing my questions and efforts here at the site, risking embarrassment, etc. I certainly don’t want to drive anyone interested in the subject away, so I try keeping my personal opinions and humor to a minimum. I feel failure when I consider our small number of contributors. Anyway, I’m a team player, here to learn and provide support as necessary. Thank you for your support. Ok, I’m guilty of attempted motivation now and then, please don’t let it bother you.

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Last time I asked if we have a picture of graphene using Miles' atomic models. I don’t think we do. Miles’ has written a Graphene paper, Graphene. * He begins by referring the reader to the very similar behavior of Carbon in the creation of Methane (CH4) which he describes in his Methane paper, The Great Methane Stink. The point being, the usual configuration of Carbon, two alphas and two pole protons can be rearranged in the presence of oxygen or metals.  
In Graphene,  

Miles wrote.So, to make a long story short, one of the alphas in the core will turn 90 degrees to align to the polar charge stream. Ignoring neutrons for now, and sticking to the diagrams above, that will give us one proton in the north pole and three in the south.

If we spread those three lower protons, our new Carbon nucleus now has the same general shape as Methane, doesn't it?

Airman. Miles then provided a picture of CH4, Methane. Here’s a picture of both carbon types, the second being the Methane paper’s image of CH4 with the four hydrogens removed.
Airman. Here’s another Graphene quote.

Miles wrote. Once the nucleons are spun up and the lower protons are spread, the nucleus still has too much charge coming through the core, and only one thing will help: adjacent nuclei can bond in order to further disperse the excess charge. And that is what happens. The Carbons bond on those three lower plugs, and the top plug is left hanging. It is the fourth bond here, which they now assign to the п bond. The lower protons are the bonding points because that is where charge is coming out. Those are the male plugs in our diagram. The hanging bond at the top is the female bond, where charge is coming in. It bonds later, in Graphite, as we will see below. As more and more Carbons join the chain, those three charge channels spread further and further, until they flatten out completely, creating what they call a 2D structure.

Airman. Do the three new male/male bonds form side-by-side alphas? I’m not quite understanding it yet.

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NEW PAPER, added 1/5/18, Graphene. http://milesmathis.com/graphene.pdf Where we see all the mainstream explanations are wrong. Why? Because they are based on electron bonding theory, which is a fudge from the first word.

331a. The Great Methane Stink. http://milesmathis.com/meth.pdf I show how Methane is created, disproving electron orbital theory once again. 12pp.
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Airman. The following image shows my current best guess/interpretation of graphene built from Miles’ (or Arlo Emerson’s) atomic models according to Miles’ paper Graphene.

Looking down at blue Carbon alphas, all other discs are single protons. Each carbon atom’s alpha north pole has a single proton above it. The three male prongs that were below each carbon alpha’s south pole must swing up in order to bond with the next carbon alpha. Each Carbon alpha seems like a three way carousal. The right side shows the edge of the graphene. In my notes it says the distance the carbon(alpha)-carbon(alpha) spacing a is, a = 1.421A

Yeah? Nay?
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Looks nice LTAM and fits the model.

Btw..found this related to space travel:

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Graphene goes to space
admin
25th June 2019


Graphene Flagship partners, Université Libre de Bruxelles, University of Pisa and the University of Cambridge, in collaboration with the European Space Agency (ESA) and the Swedish Space Corporation (SSC), launched a rocket into space from Kiruna, Sweden on June 24th.

The experiment aims to test the possibilities of printing graphene inks in space.

Studying the different self-assembly modes of graphene into functional patterns in zero-gravity will enable the fabrication of graphene electronic devices during long-term space missions, as well as help understand fundamental properties of graphene printing on Earth.

This mission is also a first step towards the investigation of graphene for radiation shielding purposes, an essential requirement of manned space exploration.

The MAterials Science Experiment Rocket (MASER) 14 was launched from the European Space Centre in Esrange, Sweden, thanks to a collaboration between the ESA, SSC, and three Graphene Flagship partners.

Graphene samples on board the sounding rocket MASER 14. Image: Graphene Flagship

The objective is to test the printing of graphene patterns on silicon substrates in zero gravity conditions.

Graphene Flagship partner University of Cambridge pioneered the use of liquid phase exfoliation to prepare graphene and related materials inks.

Such inks are now used to print all sorts of devices, ranging from flexible electronic sensors, gauges, to batteries and supercapacitors and many others.

Graphene-inks are already in the market, and many Graphene Flagship partner companies and spin-outs are commercialising this technology. This first experiments with graphene in space, led by Graphene Flagship partner Université Libre de Bruxelles, will allow to better understand the fundamentals of the printing process on Earth, by removing the presence of gravity and studying how graphene flakes self-assemble.

Most importantly, these experiments are a first step towards making graphene printing available for long term space exploration, since astronauts may need to print electronic devices on demand to cope with long-term missions.

Graphene-based composites may also be used to offer radiation protection, another compulsory requirement to enable manned space explorations, for example during Mars-bound missions.

This research follows the zero-gravity parabolic flight campaign that took place in May 2018. The earlier experiment enabled 24 seconds of microgravity to test these same properties and the quality of graphene dispersions prepared by Graphene Flagship Partner University of Cambridge.

Taking this research a step further, the flight of the MASER 14 rocket launched 250km above the Earth surface from Esrange, Sweden, enabled more than six minutes of microgravity, giving researchers additional time to carry out their tests, which will validate graphene’s self-assembly properties.

“Testing the evaporation of droplets seeded with graphene is an important step towards the comprehension of phenomena involved in coating technologies and energy applications and an enabling factor in the commercialisation of this material for creating a new life-support ecosystem in future human space exploration,” explained Carlo lorio, leader of the space activities carried out by the Graphene Flagship, and a researcher at Graphene Flagship partner Université Libre de Bruxelles. “There is no better way to validate graphene’s potential than to send it to the environment it will be used in,” added Iorio.

“Graphene has unique conductivity properties that scientists are continuing to take advantage of in new processes, devices and in this case, coatings. Experiments like these are fundamental to graphene’s success and integral for building the material’s reputation as the leading material for space applications,” he says.

The importance of space exploration for the Graphene Flagship is underlined by the organisation of the second workshop in collaboration with ESA at the upcoming Graphene Week 2019, to be held in Helsinki, Finland, from September 23rd to 27th. This workshop, chaired by Carlo Iorio, will cover a variety of topics, all of them related to new graphene devices and technologies that will boost human space exploration.

Andrea C Ferrari, Science and Technology Officer of the Graphene Flagship and Chair of its Management Panel, explained that “thanks to the expertise in microgravity research of the Université Libre de Bruxelles, the Graphene Flagship has pioneered the exploration of graphene for space applications since 2017. With three microgravity campaigns in parabolic flights already concluded (and a fourth one on the way) this rocket launch is the next step towards our major milestone: bringing graphene to the International Space Station.

https://www.engineernewsnetwork.com/blog/graphene-goes-to-space/

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Glad you agree Cr6. In that case, here’s a charge field diagram of 2 degree Twisted Bi-layer Graphene. There are some pixel problems but they aren't too bad. The long lines show the twist rotation center. The blue and red circles are the carbon alphas, all aligned (or parallel) with the red and blue graphene layers and image surfaces. The atomically clear central area is again near the top left, the bottom right shows the red and blue alphas are completely out of alignment. All single protons are in one of three orientations, all 3 of which are orthogonal to the graphene layers so they appear as short lines, the same width as the alphas. I suppose the two bonded protons between adjacent alphas include two neutrons, making them fused alphas? They are probably not as well bonded as true alphas? Clearly the difference between this and the previous TBG diagrams are all those additional interspaced orthogonal protons between and above the alphas, in locations where the mainstream no doubt expects to find electrons. I still don’t understand most of Miles’ detailed Graphene charge descriptions and I’ll need to reread it a few more times.
 
With respect to Engineer News Network article, Graphene goes to space. Testing the ability to print with evaporating droplets seeded with graphene on silicon substrates in zero gravity conditions. This mission is also “a first step towards the investigation of graphene for radiation shielding purposes”. Excellent, maybe messy but still fine ideas. We may be able to print the whole ship.

P.S.

5 degree TBG.
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I need to complete the set.


Here’s a 15 degree TBG


and a 1 degree TBG.
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